Does University of Chicago have a good Pre Med Program?
As with any other university in the United States, University of Chicago does not have a specific pre med major. Premedical students can major in any major.
University of Chicago is known to be extremely competitive, which may make it hard for premedical students to thrive. The university’s undergraduate research program is also highly regarded, providing students with opportunities to work on cutting-edge projects alongside world-class faculty.
However, University of Chicago is located in an ideal spot and there are many opportunities for premeds. The undergraduate campus is right next to the medical school campus and hospital. The university’s location in the Hyde Park neighborhood of Chicago offers students access to some of the city’s leading hospitals and research institutions, providing valuable opportunities for clinical experiences and research collaborations.
Chicago Pre Med Majors – Biological Sciences
Program of Study
Biology is the study of life, past and present. Our curriculum offers courses in many fields, from theoretical to experimental biology, and from molecular and genetic mechanisms underlying life to the complex interactions of organisms in ecosystems. As a major research institution, the University of Chicago focuses all courses in the Biological Sciences Collegiate Division on scientific reasoning, research, and discovery. The goals of the Biological Sciences curriculum are to give students (1) an understanding of currently accepted concepts in biology and the experimental support for these concepts, and (2) an appreciation of the gaps in our current understanding and the opportunities and tools available for new discoveries. A major in Biological Sciences can prepare students for careers in a wide range of areas, including health professions, basic or applied research in academia or industry, education, and policy related to human, animal, and planetary health.
Students can choose from multiple tracks to complete the Major in Biological Sciences:
Biology Track (BA and BS): Majors in the Biology Track take a series of foundational courses that span biological knowledge across fields and scales. They may then explore the breadth of biology with free electives to complete the major OR they may specialize in one area of biology through a focused selection of electives. Specializations are listed below and will be recognized on student transcripts (e.g., Biological Sciences – Specialization: Immunology). Research opportunities, internships, and courses at the Marine Biological Laboratory and Paris campuses are available for students in this track. See bscd.uchicago.edu for more information about research opportunities.
Paths through the Biology Track:
- Biological Sciences – No Specialization (free choice of BIOS electives)
- Biological Sciences – Cancer Biology Specialization
- Biological Sciences – Cellular and Molecular Biology Specialization
- Biological Sciences – Developmental Biology Specialization
- Biological Sciences – Endocrinology Specialization
- Biological Sciences – Genetics Specialization
- Biological Sciences – Immunology Specialization
- Biological Sciences – Microbiology Specialization
Interdisciplinary Biology Tracks (BA and BS): Increasingly, the biological sciences are incorporating knowledge and tools from physics, chemistry, computer science, statistics, public health, technological sciences, and the study of culture and society. Each Interdisciplinary Biology Track requires unique foundational courses that reflect these intersections. These tracks also allow students to choose electives from multiple departments to complete the major. Research opportunities, internships, and courses at the MBL and Paris campuses are available for students in these tracks. Interdisciplinary tracks are available in the following areas and will be recognized on student transcripts (e.g., Biological Sciences – Interdisciplinary Focus: Global and Public Health).
Interdisciplinary Biology Tracks:
- Biological Sciences – Ecology and Evolution
- Biological Sciences – Global and Public Health
- Biological Sciences – Computational Biology
Several types of degrees can be earned in all tracks:
Bachelor of Arts (BA): The BA is designed for students who wish to gain extensive training in the field of biology but also retain the flexibility to take elective courses outside the major. Scientific research is required for some tracks, but a thesis is not required to obtain a BA (although a thesis is required for some specializations; see details below).
Bachelor of Science (BS): The BS is designed for students who wish to delve more deeply into the field of their major through additional electives and completion of a BS thesis. Successful BS students will (1) learn how scientists design and conduct scientific experiments; (2) collect data as part of a research effort; (3) evaluate the strengths and weaknesses of that data; (4) interpret the data in the context of a specific scientific discipline; and (5) describe their work in a BS Thesis.
Bachelor of Arts/Bachelor of Science with Research Honors (Research Honors): Biology Research Honors is reserved for students who excel in the coursework of the major and have completed original research of high quality suitable for inclusion in a professional publication. Successful Research Honors students will (1) gain a scholarly understanding of a specific area of biology; (2) conduct scientific experiments, collect original data, analyze that data using appropriate statistics, and evaluate the strengths and weaknesses of the data; (3) interpret their findings in the context of their field; (4) describe their work in an Honors Thesis; and (5) present and defend their work in an oral presentation.
Bachelor of Arts/Bachelor of Science with Scholar Honors (Scholar Honors): Scholar Honors recognizes exceptional academic performance including submission and acceptance of a scholarly thesis.
General Education Requirements for the Biological Sciences
Students in all tracks must take 200 units of Biological Sciences, 200 units of Mathematics, and 200 units of Chemistry from the selected list described below.
Biological Sciences General Education Courses
Students majoring in Biological Sciences choose one of the following options:
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology | 100 |
AND | ||
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) |
OR
A score of 4 or 5 on the AP Biology test AND three quarters of the Advanced Biology Fundamentals Sequence (BIOS 20234-20236)
BIOS 20234 | Molecular Biology of the Cell | 100 |
BIOS 20235 | Biological Systems | 100 |
BIOS 20236 | Biological Dynamics | 100 |
A score of 4 or 5 on the AP Biology test will fulfill the general education requirement in the biological sciences ONLY for students who complete three quarters of the Advanced Biology Fundamentals Sequence.
Mathematics General Education Courses
Students majoring in Biological Sciences choose one of the following options:
MATH 13100-13200 | Elementary Functions and Calculus I-II | 200 |
MATH 15100-15200 | Calculus I-II | 200 |
MATH 16100-16200 | Honors Calculus I-II | 200 |
Chemistry General Education Courses
Students majoring in Biological Sciences choose one of the following options:
CHEM 10100 & 10200 |
Introductory General Chemistry I and Introductory General Chemistry II |
200 |
CHEM 11100-11200 | Comprehensive General Chemistry I-II | 200 |
CHEM 12100 & 12200 |
Honors General Chemistry I and Honors General Chemistry II |
200 |
Advanced Placement Credit
Students with a score of 4 or 5 on the AP Biology test who complete the first three quarters of the Advanced Biology Fundamentals Sequence will be awarded three credits toward the Biological Sciences major and credit for completing the general education requirement in the Biological Sciences. This option is especially appropriate for students who plan to major in Biological Sciences and prepare for a career in research, but it is open to all qualified students.
Bachelor of Arts Degree in Biological Sciences
All Tracks require students to take 1600 units.
The basic degree in Biological Sciences is the BA. Students can qualify for a BA by following one of several tracks:
1) Biology Track – Provides a comprehensive education in biology across scales, focusing on the research that leads to discovery. Students may explore the breadth of biological science or choose to specialize in a particular area.
2) Interdisciplinary Track – Ecology and Evolution – Provides an in-depth education in ecology and evolution through course work, field work, advanced statistical skills, and research. Coursework opportunities at the Marine Biological Laboratory are particularly suited for this track.
3) Interdisciplinary Track – Global and Public Health – Provides a cross-cutting education through coursework and research in the biology of disease, as well as economic and social factors influencing health outcomes worldwide. Coursework offered in Paris is particularly suited for this track.
4) Interdisciplinary Track – Computational Biology – Provides an interdisciplinary education in biology and the design and use of computational tools that can be used to address biological questions.
To qualify for a BA in one of these tracks, students must satisfy the general education requirements in biology, chemistry, and mathematics as described above AND:
1) complete the required foundational courses, termed “Fundamentals Sequence”, for the track chosen;
2) complete the required physical and mathematical sciences courses for the track chosen;
3) complete appropriate upper-level electives for the track chosen
Biology Track
Fundamentals Sequence Requirement
Students completing the major in the Biology Track will choose one of the following Fundamentals sequences:
1. Fundamentals of Biological Science sequence—begins in the Winter Quarter of the first year and is structured to provide students with a broad-based understanding of contemporary biology. Note that BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic)/BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced), and BIOS 20153 Fundamentals of Ecology and Evolutionary Biology fulfill the general education requirement in biological sciences and are not counted towards the major.
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) *# | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) | |
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology *# | 100 |
BIOS 20186 | Fundamentals of Cell and Molecular Biology | 100 |
BIOS 20187 | Fundamentals of Genetics | 100 |
BIOS 20188 | Fundamentals of Physiology | 100 |
BIOS 20189 | Fundamentals of Developmental Biology | 100 |
BIOS 20200 | Introduction to Biochemistry | 100 |
Advanced Biology sequence—begins in the Autumn Quarter of first year and requires a high level of preparedness in Biology as well as a deep interest in research. The sequence is open to students who have achieved a score of 4 or 5 on the AP Biology test or by consent.
BIOS 20234 | Molecular Biology of the Cell | 100 |
BIOS 20235 | Biological Systems | 100 |
BIOS 20236 | Biological Dynamics | 100 |
BIOS 20188 | Fundamentals of Physiology | 100 |
BIOS 20200 | Introduction to Biochemistry | 100 |
* | BIOS 20151/BIOS 20152 and BIOS 20153 fulfill the general education requirement in the biological sciences and are prerequisites for the rest of the courses in the Fundamentals Sequence. BIOS 20151 may be taken simultaneously with BIOS 20186. |
# | Non–Biological Sciences majors can take the Fundamentals of Biological Science sequence without the prerequisites (BIOS 20151/BIOS 20152) unless they pursue a double major in Biological Sciences. Students opting not to take the prerequisites should be aware that subsequent courses in the sequence expect competency in mathematical modeling of biological phenomena and basic coding in R. |
+ | Students who complete the Advanced Biology sequence but do not have a score of 4 or 5 on the AP Biology exam will need to take one additional course to fulfill the general education requirement in the Biological Sciences. |
After completion of three quarters of a Fundamentals Sequence, students begin taking upper-level elective courses in the biological sciences and may start a specialization.
Physical and Mathematical Sciences Requirement
Students completing the major in the Biology Track are required to take courses in mathematical and physical sciences as follows:
PHYSICAL SCIENCES. All of the following: | ||
CHEM 11300 | Comprehensive General Chemistry III (or equivalent) | 100 |
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II (or higher) |
200 |
PHYS 12100-12200 | General Physics I-II (or higher) | 200 |
MATHEMATICAL SCIENCES. One of the following: | ||
BIOS 26210 | Mathematical Methods for Biological Sciences I | 100 |
PHYS 12300 | General Physics III (or higher) | 100 |
STAT 22000 | Statistical Methods and Applications | 100 |
NOTE 1: The Biology Track does NOT require the third quarter of calculus. Students MUST take BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic) or BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced), and students in the Advanced Biology sequence MUST take BIOS 20236 Biological Dynamics. NO Mathematics courses may be substituted for these requirements.
NOTE 2: Students planning to apply to medical school should be aware of individual medical school admissions requirements and should tailor their program accordingly with the help of UChicago Careers in Healthcare.)
Upper-Level Elective Requirements
Students completing the major in the Biology Track must take five upper-level courses (course numbers BIOS 21000 to 28999) to complete the Bachelor of Arts degree. These courses may be selected by the student or in consultation with the BSCD Senior Advisers (Megan McNulty, mmcnulty@uchicago.edu; Chris Andrews, candrews@uchicago.edu).
If the student following the Biology Track chooses to focus their coursework in a specific area, they can complete a specialization. In this case, courses should be chosen in consultation with the specialization adviser (listed below).
NOTE: BIOS 00199 Undergraduate Research, BIOS 00206 Readings: Biology, and BIOS 00299 Advanced Research: Biological Sciences may not be used to meet requirements for the Biological Sciences degree.
Summary of Requirements for a BA in Biological Sciences: Biology Track
CHEM 11300 | Comprehensive General Chemistry III (or equivalent) | 100 |
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II (or higher) |
200 |
PHYS 12100-12200 | General Physics I-II (or higher) | 200 |
One of the following general quantitative courses: | 100 | |
BIOS 26210
|
Mathematical Methods for Biological Sciences I | |
PHYS 12300
|
General Physics III (or higher) | |
STAT 22000
|
Statistical Methods and Applications | |
Fundamentals of Biological Science Sequence or Advanced Biology Sequence | 500 | |
Five upper-level electives in Biological Sciences, BIOS 21000-28999 | 500 | |
Total Units | 1600 |
Specialization Programs in the Biological Sciences
Specializations represent recommended programs of study for students interested in one particular field within the biological sciences. Students who wish to complete a specialization should discuss their plans with the specialization director by Spring Quarter of their second year. Students may complete only one specialization. All courses must be taken for a quality grade in order to count toward a specialization.
Specialization in Cancer Biology
Specialization in Cellular and Molecular Biology
Specialization in Developmental Biology
Specialization in Endocrinology
Specialization in Genetics
Specialization in Immunology
Specialization in Microbiology
Specialization in Cancer Biology
Students who complete the requirements detailed below will be recognized as having completed a Specialization in Cancer Biology.
To be eligible to carry out a Specialization in Cancer Biology, students must average a B grade in one of the Fundamentals Sequences.
Students who plan to specialize in cancer biology are advised to begin the required specialization courses in their second or third year in the College. Students who elect to specialize should email Dr. Kay F. Macleod (kmacleod@uchicago.edu), providing contact information, name and contact for your College adviser, a copy of your most recent grade transcript, and a half-page summary of why you are interested in the Specialization in Cancer Biology and what your long-term career goals are. An annual overview meeting is organized for the fall of each year at which advice will be provided on the objectives of the specialization, the importance of each of the courses, and guidelines on how to identify labs in which individual research projects can be carried out. Interested students are encouraged to attend and to bring forward any questions about requirements and research options at this meeting.
Course Work. The following courses are required for a Specialization in Cancer Biology. To continue in the specialization, students must achieve an A or a B grade in both courses.
BIOS 25108 | Cancer Biology | 100 |
BIOS 25308 | Heterogeneity in Human Cancer: Etiology and Treatment | 100 |
To complete the Specialization in Cancer Biology, students should also take one of the following two courses in either their third or fourth year, having successfully completed BIOS 25108 and BIOS 25308 above, and started work in their chosen research laboratory.
BIOS 25326 | Tumor Microenvironment and Metastasis | 100 |
BIOS 25327 | Health Disparities in Breast Cancer | 100 |
To complete the Specialization in Cancer Biology, students will also carry out individual guided research in a cancer research laboratory and attend cancer biology-related seminars. Participation in the research component of the Specialization in Cancer Biology is by invitation only and is based on:
(1) performance in the above-mentioned courses, (2) identification of a research project and mentor, (3) submission of a research abstract for consideration by the end of the Winter Quarter of their junior year to the Director of the Specialization in Cancer Biology (Dr. Kay Macleod).
Laboratory Research: Independent research projects performed by students in the Specialization in Cancer Biology must be approved by the Director of the Specialization (Dr. Kay Macleod) and to be of sufficiently high standard to qualify as a senior honors project and ideally to produce data that contributes to peer-reviewed publication.
Students are encouraged to begin their research project no later than the Spring/Summer Quarter of their junior year.
Specialization in Cellular and Molecular Biology
Biological Sciences majors can complete the Specialization in Cellular and Molecular Biology by either:
1. Successful completion of CHEM 22200 Organic Chemistry III or CHEM 23200 Honors Organic Chemistry III plus four upper-level BIOS courses selected from the list below.
OR
2. Successful completion of CHEM 22200 Organic Chemistry III or CHEM 23200 Honors Organic Chemistry III plus three upper-level BIOS courses selected from the list below and completion of a senior thesis on an independent research project. This project must either (1) satisfy the requirements for the BSCD Honors program, (2) satisfy the requirements for a BS in Biological Sciences, or (3) be approved by the directors of the specialization no later than Spring Quarter of the third year.
Courses
BIOS 21236 | Genetics of Model Organisms | 100 |
BIOS 21237 | Developmental Mechanisms | 100 |
BIOS 21238 | Cell Biology II | 100 |
BIOS 21360 | Advanced Molecular Biology | 100 |
BIOS 21416 | Stem Cells and Regeneration | 100 |
BIOS 21510 | Chromatin & Epigenetics | 100 |
BIOS 23299 | Plant Development and Molecular Genetics | 100 |
BIOS 25226 | Endocrinology I: Cell Signaling | 100 |
BIOS 25266 | Molecular Immunology | 100 |
BIOS 27750 | Stem Cells and Regeneration: from aquatic research organisms to mammals | 100 |
* | Students may only choose one of these courses: BIOS 21237 Developmental Mechanisms or BIOS 23299 Plant Development and Molecular Genetics. |
Specialization in Developmental Biology
Students majoring in Biological Sciences who complete the requirements detailed below will be recognized as having completed a Specialization in Developmental Biology.
The following requirements must be met:
1. Successful completion of BIOS 20189 Fundamentals of Developmental Biology or BIOS 20236 Biological Dynamics plus five upper-level courses selected from the list below.
OR
2. Successful completion of BIOS 20189 Fundamentals of Developmental Biology or BIOS 20236 Biological Dynamics plus three upper-level courses selected from the list below and completion of a senior thesis on an independent research project. This project must either (1) satisfy the requirements for the BSCD Honors program, (2) satisfy the requirements for a BS in Biological Sciences, or (3) be approved by the directors of the specialization no later than Spring Quarter of the third year.
Courses
Three of the following (with research thesis) or five of the following (without research thesis).
BIOS 21236 | Genetics of Model Organisms | 100 |
BIOS 21237 | Developmental Mechanisms | 100 |
BIOS 21356 | Vertebrate Development | 100 |
BIOS 21415 | Stem Cells in Development and Diseases | 100 |
BIOS 21416 | Stem Cells and Regeneration | 100 |
BIOS 21507 | Stem Cell Biology, Regeneration, and Disease Modeling | 100 |
BIOS 21510 | Chromatin & Epigenetics | 100 |
BIOS 22306 | Evolution and Development | 100 |
BIOS 23299 | Plant Development and Molecular Genetics | 100 |
BIOS 27724 | Introduction to Imaging for Biological Research | 100 |
BIOS 27750 | Stem Cells and Regeneration: from aquatic research organisms to mammals | 100 |
NSCI 22300 | Molecular Principles of Nervous System Development | 100 |
Specialization in Endocrinology
Students majoring in Biological Sciences who complete the requirements detailed below will be recognized as having completed a Specialization in Endocrinology. Students who complete the specialization will be well-versed in all aspects of endocrinology, ranging from basic cell signaling to the integration of endocrine systems and their dysregulation in human disease. Students must take three introductory courses listed below plus two additional courses from the elective list. The prerequisite for these courses is completion of the Fundamentals Sequence. It is strongly recommended that students complete a Biochemistry course before enrolling; however, the introductory courses can be completed as Endocrinology I–II-III or Endocrinology II-III-I.
Introductory Courses
BIOS 25226 | Endocrinology I: Cell Signaling (Autumn) | 100 |
BIOS 25227 | Endocrinology II: Systems and Physiology (Winter) | 100 |
BIOS 25228 | Endocrinology III: Human Disease (Spring) | 100 |
Elective Courses
BIOS 22236 | Reproductive Biology of Primates | 100 |
BIOS 22249 | Principles of Toxicology | 100 |
BIOS 24248 | Biological Clocks and Behavior | 100 |
BIOS 25109 | Topics in Reproduction and Cancer | 100 |
BIOS 25126 | Animal Models of Human Disease | 100 |
PSYC 20300 | Biological Psychology * | 100 |
PSYC 25750 | The Psychology and Neurobiology of Stress * | 100 |
* | These courses count as general electives, but do not count in the Biological Sciences major. |
The Specialization in Endocrinology is administered by the Section of Endocrinology, Diabetes, and Metabolism, the Committee on Molecular Metabolism and Nutrition, and the NIH-funded Diabetes Research and Training Center.
Specialization in Genetics
Students majoring in Biological Sciences who complete the requirements below will be recognized as having completed a Specialization in Genetics. Students must either:
1. Complete five courses from the categories listed below, including at least one from each category.
OR
2. Complete three courses chosen from the categories listed below, including one course in each category, and complete a senior thesis or an independent research project. This project must either (1) satisfy the requirements for the BSCD honors program, (2) satisfy the requirements for a BS in Biological Sciences, or (3) be approved by the directors of the specialization no later than Spring Quarter of the third year.
One of the following: | ||
STAT 22000 | Statistical Methods and Applications (or higher) | 100 |
BIOS 21306 | Human Genetics and Evolution | 100 |
One of the following: | ||
BIOS 21236 | Genetics of Model Organisms | 100 |
BIOS 23258 | Molecular Evolution I: Fundamentals and Principles | 100 |
One of the following with research or three of the following without research: | ||
BIOS 21216 | Introduction to Statistical Genetics | 100 |
BIOS 21229 | Genome Informatics: How Cells Reorganize Genomes | 100 |
BIOS 21237 | Developmental Mechanisms | 100 |
BIOS 21510 | Chromatin & Epigenetics | 100 |
BIOS 22306 | Evolution and Development | 100 |
BIOS 23299 | Plant Development and Molecular Genetics | 100 |
BIOS 25216 | Molecular Basis of Bacterial Disease | 100 |
BIOS 25287 | Introduction to Virology (Spring) | 100 |
BIOS 25328 | Cancer Genetics and Genomics | 100 |
BIOS 28407 | Genomics and Systems Biology (Spring) | 100 |
Specialization in Immunology
Students majoring in Biological Sciences will be recognized as having completed a Specialization in Immunology if they complete the following: (1) three of the four courses listed below, and (2) either two additional courses, selected in consultation with the director of the specialization, or a research project, approved by the director of the specialization.
BIOS 25256 | Immunobiology (Autumn) | 100 |
BIOS 25258 | Immunopathology (Winter) | 100 |
One of the following: | ||
BIOS 25266 | Molecular Immunology (Spring, offered every other year in odd years) | 100 |
BIOS 26403 | Quantitative Immunobiology (Winter) | 100 |
Accelerated Program in Immunology
The University of Chicago Graduate Program in Immunology permits undergraduate students who have demonstrated outstanding potential for graduate studies in biology to begin graduate school during their fourth year in the College. This is a competitive merit-award program.
Because of the accelerated nature of the curriculum, applicants must have outstanding academic credentials (i.e., GPA typically in the range of 3.7 and GRE scores typically not less than 1400). Eligible students also have a clear understanding of their motivation for immunology. Laboratory experience is not mandatory but highly encouraged.
Candidates will apply to the Graduate Program in Immunology at the University of Chicago during their third year in the College. Eligible students must have completed thirty-three credits (of the forty-two required for a degree in the College) by the end of their third year. These thirty-three credits must include all fifteen general education requirements and one-half of the requirements for their major.
Specialization in Microbiology
Students majoring in Biological Sciences who complete the requirements detailed below will be recognized as having completed a Specialization in Microbiology. Students must take the three courses listed below and either two additional courses or a research project.
Students are encouraged to begin this sequence in Autumn Quarter of their third year, carry out individual guided research, participate in the honors research program, and attend the Microbiology Seminar series (micro.uchicago.edu/events).
REQUIRED COURSES | ||
BIOS 25206 | Fundamentals of Bacterial Physiology (Autumn) | 100 |
BIOS 25216 | Molecular Basis of Bacterial Disease (Winter) | 100 |
BIOS 25287 | Introduction to Virology (Spring) | 100 |
Total Units | 300 |
ELECTIVE COURSES | ||
Two of the following: | ||
BIOS 23409 | The Ecology and Evolution of Infectious Diseases | 100 |
BIOS 25207 | Fundamentals and Applications of the Human Microbiota | 100 |
BIOS 25256 | Immunobiology | 100 |
BIOS 25260 | Host Pathogen Interactions | 100 |
GEOS 26650 | Environmental Microbiology (Autumn) | 100 |
BIOS 27720 | Microbiomes Across Environments | 100 |
CHEM 22200 | Organic Chemistry III | 100 |
Interdisciplinary Biology Track
Ecology and Evolution Track
Fundamentals Sequence Requirement
Students completing the Biological Sciences major in the Ecology and Evolution Track must choose one of the following Fundamentals sequences:
1. Fundamentals of Ecology and Evolution sequence—begins in the Winter Quarter of the first year and is structured to provide students with a foundation for interdisciplinary study in this field. Note that BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic)/BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced) and BIOS 20153 Fundamentals of Ecology and Evolutionary Biology fulfill the general education requirement in biological sciences and are not counted towards the major.
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) # | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) | |
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology # | 100 |
BIOS 20186 | Fundamentals of Cell and Molecular Biology | 100 |
BIOS 20187 | Fundamentals of Genetics | 100 |
BIOS 20198 | Biodiversity *# | 100 |
# | BIOS 20151/BIOS 20152 and BIOS 20153 fulfill the general education requirement in the biological sciences and are prerequisites for the rest of the courses in the Fundamentals Sequence. BIOS 20151 may be taken simultaneously with BIOS 20186. |
*# | BIOS 20198 Biodiversity is offered both in Chicago and at MBL in the Spring Quarter at MBL program. |
OR
2. Advanced Biology Ecology and Evolution Fundamentals sequence—begins in the Autumn Quarter of first year and requires a high level of preparedness in biology as well as a deep interest in research. The sequence is open to students who have achieved a score of 4 or 5 on the AP Biology test or by consent.
BIOS 20234 | Molecular Biology of the Cell | 100 |
BIOS 20235 | Biological Systems | 100 |
BIOS 20236 | Biological Dynamics | 100 |
BIOS 20198 | Biodiversity | 100 |
+ | Students who complete the Advanced Biology sequence but do not have a score of 4 or 5 on the AP Biology exam will need to take one additional course to fulfill the general education requirement in the Biological Sciences. |
Field Ecology Requirement
In addition, students following either the Fundamentals of Ecology and Evolution sequence or the Advanced Biology Ecology and Evolution Fundamentals sequence must complete the sequence with one of the following field ecology courses:
BIOS 20196 | Ecology and Conservation | 100 |
BIOS 27710 | Ecology – Marine Biological Laboratory (offered in the Semester in Environmental Science program at MBL) * | 100 |
BIOS 27751 | Biological Oceanography (offered in the Spring Quarter at MBL) * | 100 |
BIOS 27725 | Biogeography and Distribution of Species (offered in the September Term at MBL) * | 100 |
* | More information on the experiences and opportunities at MBL can be found on the College’s MBL page. |
Physical and Mathematical Sciences Requirement
Students completing the Biological Sciences major in the Ecology and Evolution track must take:
CHEM 11300 | Comprehensive General Chemistry III (or equivalent) | 100 |
STAT 22000 | Statistical Methods and Applications | 100 |
One of the following: | ||
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II (or higher) |
200 |
PHYS 12100-12200 | General Physics I-II (or higher) | 200 |
Three additional quantitative courses * | 300 |
*Students can satisfy this requirement with quantitative upper-level BIOS courses or courses from other departments (e.g., MATH, PHYS, STAT, or CMSC).
NOTE 1: The Ecology and Evolution Track does NOT require the third quarter of calculus. Students MUST take BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic) or BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced), and students in the Advanced Biology sequence MUST take BIOS 20236 Biological Dynamics. NO Mathematics courses may be substituted for these requirements.
NOTE 2: Students planning to apply to medical school should be aware of individual medical school admissions requirements and should tailor their program accordingly with the help of UChicago Careers in Healthcare.
Upper-Level Elective Requirements
Students completing the Biological Sciences major in the Ecology and Evolution Track must take five upper-level courses (BIOS 21000 to 28999) after the Fundamentals of Ecology and Evolution sequence to complete the Bachelor of Arts degree; three of these electives must be in the area of ecology, evolution, genetics, or behavior (notated with an E after the course title in the catalog).
Four upper-level electives are required for students who have completed the Advanced Biology Ecology and Evolution Fundamentals sequence; three of these electives must be in the area of ecology, evolution, genetics or behavior (notated with an E after the course title in the catalog).
NOTE: BIOS 00199 Undergraduate Research, BIOS 00206 Readings: Biology, and BIOS 00299 Advanced Research: Biological Sciences may not be used to meet requirements for the Biological Sciences degree. Courses listed under the heading Specialized Courses (course numbers in the 29000 range) may not be used to meet requirements for the Biological Sciences degree.
Additional Requirements: Completion of the major through this track requires one quarter of independent field or research work in the area of Ecology and Evolution is required).
Research opportunities of particular interest to students in this track can be found on the Interdisciplinary Biology Ecology and Evolution page.
Summary of Requirements: Ecology and Evolution Track
CHEM 11300 | Comprehensive General Chemistry III (or equivalent) | 100 |
STAT 22000 | Statistical Methods and Applications | 100 |
One of the following: | 200 | |
CHEM 22000
& 22100 |
Organic Chemistry I and Organic Chemistry II (or higher)s |
|
PHYS 12100-12200
|
General Physics I-II (or higher) | |
Three additional quantitative courses * | 300 | |
Fundamentals of Ecology and Evolution Sequence or Advanced Biology Ecology and Evolution Sequence + | 300 | |
Field Ecology Course | 100 | |
Five courses, BIOS 21000-28999 in Biological Sciences (at least 3 notated E) + | 500 | |
One quarter of approved research | ||
Total Units | 1600 |
+ | Students completing the Advanced Biology Sequence take four additional upper-level electives, at least three notated E. |
Global and Public Health Track
Fundamentals Sequence Requirement
Students completing the Biological Sciences major in the Global and Public Health Track must choose one of the following Fundamentals sequences:
1. Fundamentals of Global and Public Health sequence—begins in the Winter Quarter of the first year and is structured to provide students with a foundation for interdisciplinary study in this field. Note that BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic)/BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced) and BIOS 20153 Fundamentals of Ecology and Evolutionary Biology fulfill the general education requirement in the biological sciences and are not counted towards the major.
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) *# | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) | |
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology *# | 100 |
BIOS 20186 | Fundamentals of Cell and Molecular Biology | 100 |
BIOS 20187 | Fundamentals of Genetics | 100 |
BIOS 20188 | Fundamentals of Physiology | 100 |
BIOS 27810 | Epidemiology and Population Health: Global Health Sciences I ** | 100 |
*# BIOS 20151/BIOS 20152 and BIOS 20153 fulfill the general education requirement in the biological sciences and are prerequisites for the rest of the courses in the Fundamentals Sequence. BIOS 20151 may be taken simultaneously with BIOS 20186.
OR
2. Advanced Biology Global and Public Health Fundamentals sequence—begins in the Autumn Quarter of the first year and requires a high level of preparedness in biology as well as a deep interest in research. The sequence is open to students who have achieved a score of 4 or 5 on the AP Biology test or by consent.
BIOS 20234 | Molecular Biology of the Cell | 100 |
BIOS 20235 | Biological Systems | 100 |
BIOS 20236 | Biological Dynamics | 100 |
BIOS 20188 | Fundamentals of Physiology | 100 |
BIOS 27810 | Epidemiology and Population Health: Global Health Sciences I ** | 100 |
In addition, students following either the Fundamentals of Global and Public Health Sequence or the Advanced Biology Global and Public Health Sequence must complete the sequence with the following courses:
The Chicago series of foundational courses in Global and Public Health:
BIOS 25216 | Molecular Basis of Bacterial Disease | 100 |
or BIOS 25287 | Introduction to Virology | |
HLTH 17000 | Introduction to Health and Society | 100 |
OR
The Paris series of foundational courses in Global and Public Health (offered during Winter Quarter)†:
BIOS 27815 | Global Health Sciences II: Infectious Diseases | 100 |
BIOS 29814 | Global Health Sciences III: Biological and Social Determinants of Health | 100 |
** | BIOS 27810 must be taken before the Paris series or a student may receive consent from the instructor. |
† | More information on the Global Health in Paris Program can be found on the Study Abroad page for Paris: Global Health.
Note: BIOS 27815 and BIOS 29814 will complete the foundational course requirements in this track, and the final course in the Paris Quarter, BIOS 27813 Cancer Concepts: Causes and Consequences, will count as one upper-level BIOS elective. |
Physical and Mathematical Sciences Requirement
Students pursuing the major in the Global and Public Health Track will complete the following:
CHEM 11300 | Comprehensive General Chemistry III | 100 |
One of the following quantitative courses: | ||
BIOS 26210 | Mathematical Methods for Biological Sciences I | 100 |
PHYS 12300 | General Physics III (or higher) | 100 |
STAT 22000 | Statistical Methods and Applications (or higher) | 100 |
NOTE 1: The third quarter of Calculus is NOT required for the Global and Public Health Track. Students MUST take BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic) or BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced), and students in the Advanced Biology sequence MUST take BIOS 20236 Biological Dynamics. NO Mathematics courses may be substituted for these requirements.
NOTE 2: Students planning to apply to medical school should be aware of individual medical school admissions requirements and should tailor their program accordingly with the help of UChicago Careers in Healthcare.
Upper-Level Elective Requirements
Students completing the major in the Global and Public Health Track must take eight upper-level electives distributed as follows: Four upper-level BIOS courses (BIOS 21000 to 28999) and four courses from the approved non-BIOS course list (see list below). Two of the BIOS electives must be in the area of global and public health (notated with a GP after the course title in the catalog).
Students who have completed the Advanced Biology Global and Public Health sequence must take three BIOS upper-level electives, two of which must be in the area of global and public health (notated with a GP after the course title in the catalog).
Note: Students in this track can use BIOS 20200 Introduction to Biochemistry as one of the BIOS upper-level electives and CHEM 22000 Organic Chemistry I as one of the non-BIOS upper-level electives.
Non-BIOS upper-level electives:
ANTH 21420 | Ethnographic Methods | 100 |
ANTH 24302 | Disability in Local and Global Contexts | 100 |
ANTH 24315 | Culture, Mental Health, and Psychiatry | 100 |
ANTH 24330 | Medical Anthropology | 100 |
BPRO 22800 | Drinking Alcohol: Social Problem or Normal Cultural Practice? | 100 |
BUSN 42300 | Global Health and Social Policy | 100 |
CCTS 21009 | Justice, Solidarity, and Global Health | 100 |
CHDV 21000 | Cultural Psychology | 100 |
CHEM 22000 | Organic Chemistry I | 100 |
ENST 25460 | Environmental Effects on Human Health | 100 |
GLST 23101 | Global Studies I | 100 |
HMRT 21400 | Health and Human Rights | 100 |
HLTH 27450 | Social Inequalities in Health: Race/Ethnicity & Class | 100 |
PBPL 21501 | Environmental Justice | 100 |
PBPL 25832 | Early Human Capital Development | 100 |
PBHS 22710 | Environmental Health | 100 |
PBHS 23700 | Sexual Health: Identity, Behavior, and Outcomes | 100 |
PBHS 31831 | Genetic & Molecular Epidemiology | 100 |
PBPL 25832 | Early Human Capital Development | 100 |
PBPL 26690 | The Politics of Health Care | 100 |
PBPL 27000 | International Economics | 100 |
PBPL 27905 | Global Health Metrics | 100 |
PHIL 21609 | Topics in Medical Ethics | 100 |
PSYC 25750 | The Psychology and Neurobiology of Stress | 100 |
PSYC 28791 | Behavioral Science and Public Policy | 100 |
RLST 24103 | Bioethics | 100 |
SSAD 21300 | Global Mental Health | 100 |
Additional Requirements: One quarter of independent field or research work in the area of Global and Public Health
Research opportunities of particular interest to students in this track can be found on the Interdisciplinary Biology Track Global and Public Health page.
Summary of Requirements: Global and Public Health Track
CHEM 11300 | Comprehensive General Chemistry III | 100 |
One of the following quantitative courses: | 100 | |
STAT 22000
|
Statistical Methods and Applications (or higher) | |
BIOS 26210
|
Mathematical Methods for Biological Sciences I | |
PHYS 12300
|
General Physics III (or above) | |
Global and Public Health Fundamentals Sequence or Advanced Biology Global and Public Health Fundamentals Sequence | 600 | |
Four upper-level electives in Biological Sciences, BIOS 21000-28999 (at least two annotated GP) + | 400 | |
Four upper-level non-BIOS electives in Global and Public Health | 400 | |
One quarter of approved research | ||
Total Units | 1600 |
+ | Students completing the Advanced Biology Global and Public Health Sequence take three BIOS upper-level electives, at least two notated GP. |
Honors for the Global and Public Health Track
Students wishing to complete an honors thesis should see Honors. When appropriate for their research topic and methods, students in this track may instead enroll in SOCI 29998 Sociology BA Thesis Seminar with approval.
Computational Biology Track
Fundamentals Sequence Requirement
Students completing the Biological Sciences major in the Computational Biology Track must choose one of the following Fundamentals sequences:
1. Fundamentals of Computational Biology sequence—begins in the Winter Quarter of the first year and is structured to provide students with a foundation for interdisciplinary study in this field. Note that BIOS 20151 Introduction to Quantitative Modeling in Biology (Basic)/BIOS 20152 Introduction to Quantitative Modeling in Biology (Advanced) and BIOS 20153 Fundamentals of Ecology and Evolutionary Biology fulfill the general education requirement in the biological sciences and are not counted towards the major.
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) *# | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) | |
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology *# | 100 |
BIOS 20186 | Fundamentals of Cell and Molecular Biology | 100 |
BIOS 20187 | Fundamentals of Genetics | 100 |
BIOS 26210 | Mathematical Methods for Biological Sciences I | 100 |
*# | BIOS 20151/BIOS 20152 and BIOS 20153 fulfill the general education requirement in the biological sciences and are prerequisites for the rest of the courses in the Fundamentals Sequence. BIOS 20151 may be taken simultaneously with BIOS 20186. |
OR
2. Advanced Computational Biology Fundamentals sequence—begins in the Autumn Quarter of the first year and requires a high level of preparedness in biology as well as a deep interest in research. The sequence is open to students who have achieved a score of 4 or 5 on the AP Biology test or by consent.
BIOS 20234 | Molecular Biology of the Cell | 100 |
BIOS 20235 | Biological Systems | 100 |
BIOS 20236 | Biological Dynamics | 100 |
BIOS 26210 | Mathematical Methods for Biological Sciences I | 100 |
In addition, students following either the Fundamentals of Computational Biology Sequence or the Advanced Computational Biology Sequence must complete the sequence with the following courses in computer programming:
Two courses in computer programming:
DATA 11800 & 11900 |
Introduction to Data Science I and Introduction to Data Science II |
200 |
OR | ||
CMSC 14100 & 14200 |
Introduction to Computer Science I and Introduction to Computer Science II |
200 |
OR | ||
CMSC 14200 & 14300 |
Introduction to Computer Science II and Systems Programming I |
200 |
OR | ||
CMSC 14300 & 14400 |
Systems Programming I and Systems Programming II + |
200 |
+ | CMSC back credit not permitted. Students who place into CMSC 14400 may fulfill this requirement with CMSC 14400 and an additional course from the approved non-BIOS list. |
AND
One course in Computational Approaches to Biological Problems†:
BIOS 26211 | Mathematical Methods for Biological Sciences II | 100 |
BIOS 26318 | Fundamentals of Biological Data Analysis | 100 |
BIOS 26120 | An Introduction to Bioinformatics and Proteomics | 100 |
BIOS 26121 | Introduction to Transcriptomics | 100 |
BIOS 26403 | Quantitative Immunobiology | 100 |
BIOS 26404 | Quantitative Genetics for the 21st Century | 100 |
† | These courses can count as either a Computational Approaches to Biological Problems course or an upper-level elective. |
Physical Sciences Requirements
CHEM 11300 | Comprehensive General Chemistry III (or higher) | 100 |
AND | ||
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II (or higher) |
200 |
or PHYS 12100 & PHYS 12200 |
General Physics I and General Physics II |
|
AND | ||
STAT 22000 | Statistical Methods and Applications | 100 |
AND | ||
STAT 24300 | Numerical Linear Algebra | 100 |
or MATH 19620 | Linear Algebra |
Upper-Level Elective Requirements
Students completing the major in the Computational Biology Track must take five upper-level electives distributed as follows: Three upper-level BIOS courses in the area of computational biology (annotated CB) and two courses from the approved non-BIOS course list (see list below).
Students who have completed the Advanced Computational Biology Fundamentals sequence must take two BIOS upper-level courses in the area of computational biology (annotated CB).
Non-BIOS Electives: | ||
CMSC 13600 | Introduction to Data Engineering | 100 |
CMSC 14300 | Systems Programming I (if not used to fulfill programming requirement) | 100 |
CMSC 14400 | Systems Programming II (if not used to fulfill programming requirement) | 100 |
CMSC 21800 | Data Science for Computer Scientists | 100 |
CMSC 23900 | Data Visualization *** | 100 |
CMSC 25025 | Machine Learning and Large-Scale Data Analysis | 100 |
CMSC 25300/STAT 27700 | Mathematical Foundations of Machine Learning ** | 100 |
CMSC 25400/STAT 27725 | Machine Learning ** | 100 |
CMSC 25440 | Machine Learning in Medicine ** | 100 |
DATA 22100 | Introduction to Machine Learning ** | 100 |
DATA 27100-27200 | Data Science Clinic I-II (also fulfills research requirement) | 200 |
DATA 22700 | Data Visualization and Communication *** | 100 |
STAT 22810 | Epidemiology and Population Health | 100 |
MENG 21400 | Molecular Engineering Thermodynamics | 100 |
Additional Requirements: One quarter of independent field or research work in the area of Computational Biology is required. This requirement can be fulfilled by approved independent research with a faculty mentor or by completion of DATA 27100 Data Science Clinic I or DATA 27200 Data Science Clinic II. More information on track-specific opportunities can be found on the Interdisciplinary Biology Computational Biology page.
Summary of Requirements: Computational Biology Track
CHEM 11300 | Comprehensive General Chemistry III (or higher) | 100 |
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II (or higher) |
200 |
or PHYS 12100 & PHYS 12200 |
General Physics I and General Physics II |
|
STAT 22000 | Statistical Methods and Applications | 100 |
STAT 24300 | Numerical Linear Algebra | 100 |
or MATH 19620 | Linear Algebra | |
Computational Biology Fundamentals Sequence or Advanced Computational Biology Fundamentals Sequence + | 300 | |
Two courses in computer programming | 200 | |
One course in Computational Applications to Biological Problems | 100 | |
Three upper-level (BIOS 21000-28999) electives (annotated CB) + | 300 | |
Two upper-level non-BIOS electives from the approved list | 200 | |
One quarter of approved research | ||
Total Units | 1600 |
+ | Students completing the Advanced Computational Biology Fundamentals Sequence take two BIOS upper-level electives (annotated CB). |
Program Requirements for the Bachelor of Science in Biological Sciences
Students can earn a Bachelor of Science (BS) degree in Biological Sciences in any of the tracks by:
(1) completing three upper-level elective courses in Biological Sciences beyond those required for the BA degree, including BIOS 28900 Undergraduate Bachelor of Science Research (or both quarters of BIOS 00296 Undergraduate Honors Research if also pursuing Biology Research Honors)
AND
(2) writing a BS thesis under the supervision of an adviser who is a member of the Biological Sciences Division research faculty. The topic of the BS thesis must be appropriate for the track chosen.
Students completing the honors program or a specialization in the Biology Track that requires a senior thesis can submit the same thesis for the BS degree. Candidates must declare their intent by submitting a faculty consent form no later than the end of the Spring Quarter of their third year in the College. Details of the BS degree and a timeline for completion of requirements are provided on the BSCD website, bscd.uchicago.edu.
Honors
Honors in Biological Sciences can be earned via one of two ways.
Research Honors: Emphasizes exceptional achievement in a program of original research (minimum cumulative GPA of 3.30 or above), plus submission and acceptance of an in-depth research thesis.
Scholar Honors: Recognizes exceptional academic performance (minimum cumulative GPA of 3.75 or above), including submission and acceptance of a scholarly thesis.
Both programs require formal declarations of intent to seek honors by the candidates. The details of each program are provided on the BSCD website. Candidates must apply for either program no later than the beginning of Spring Quarter of their third year in the College.
Research Opportunities
Students in all tracks are encouraged to carry out individual guided research in an area of their interest. A student may propose an arrangement with any faculty member in the Biological Sciences Division to sponsor and supervise research. Students may register for BIOS 00199 Undergraduate Research or BIOS 00299 Advanced Research: Biological Sciences at any time if they want to receive course credit for their research work, but this is not required.
Students interested in research are also encouraged to work in a research lab over the summer. In addition to individual arrangements with faculty, students may take advantage of fellowship programs. Application deadlines for fellowships range from mid-February to early April.
BIOS 10098. Pizza with the PIs: Introduction to Biology Research at The University of Chicago. 000 Units.
This is an optional, non-credit course for students interested in carrying out research at the University of Chicago. It provides students with an opportunity to get to know the research faculty, identify potential labs to join, and be inspired by the research advances happening on our campus. Each week, a different faculty member from any of the various departments in the Biological Sciences Division (BSD) will present their own research work in a 50 minute, lunch-time seminar. Registration for the course is required to be able to attend these seminars. Pizza will be served.Prerequisite(s): This course is for prospective biology majors only. Students should have attended, or be enrolled in, at least one quarter of any Fundamentals sequence in biology.
Note(s): This course is non-credit. Students will get a grade of P/F based on attendance at 7 out of 9 weekly seminars. This course can be taken along-with 4 other regular courses and the grade of P/F from this course will not affect student GPA. This course does not confer any credit towards the biology major, biology minor, or general education requirement in biology.
Minor in Biological Sciences
A student may earn a Minor in Biological Sciences with the following coursework:
General Education Requirement in the Biological Sciences
Two quarters of one of the following sequences:
Fundamentals in Biological Sciences Sequence
BIOS 20153 | Fundamentals of Ecology and Evolutionary Biology | 100 |
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) | 100 |
or BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) |
Health Professions Preparation Sequence
BIOS 20170 | Microbial and Human Cell Biology | 100 |
BIOS 20171 | Human Genetics and Developmental Biology | 100 |
General Education Sequence for Non-Majors
BIOS 10130 | Principles of Biology | 100 |
or BIOS 10140 | Inquiry-based Exploration of Biology | |
& one biology topics course (BIOS 11000-19999) # | 100 |
# | See Topics Courses for Non-Majors |
Note: It is recommended that students minoring in the Biological Sciences take BIOS 20153 and BIOS 20151 (or BIOS 20152) to fulfill their general education requirement, as these offer the best preparation for the fundamentals sequence courses and the upper-level electives. However, any of the courses above will be accepted.
General Education Requirement in the Physical Sciences
MATH 13100-13200 | Elementary Functions and Calculus I-II (or higher) | 200 |
Fundamentals Sequence Requirement
Three courses from the Fundamentals in Biological Sciences Sequence:
BIOS 20186 | Fundamentals of Cell and Molecular Biology * | 100 |
BIOS 20187 | Fundamentals of Genetics | 100 |
and one of the following: | ||
BIOS 20188 | Fundamentals of Physiology | 100 |
BIOS 20189 | Fundamentals of Developmental Biology | 100 |
BIOS 20196 | Ecology and Conservation | 100 |
BIOS 20198 | Biodiversity | 100 |
* | Non–Biological Sciences majors can take the Fundamentals of Biological Science sequence without the prerequisites (BIOS 20151/BIOS 20152) unless they pursue a double major in Biological Sciences. Students opting not to take the prerequisites should be aware that subsequent courses in the sequence expect competency in mathematical modeling of biological phenomena and basic coding in R. |
OR
Three courses from the Health Professions Preparation Sequence:
BIOS 20172 | Mathematical Modeling for Pre-Med Students | 100 |
BIOS 20173 | Perspectives of Human Physiology | 100 |
BIOS 20175 | Biochemistry and Metabolism | 100 |
Upper-Level Electives Requirement
Four upper-level electives (BIOS 21000-28999).
No course in the minor can be double counted with the student’s major(s) or with other minors, nor can they be counted toward general education requirements. More than half of the requirements for the minor must be met by registering for courses with University of Chicago course numbers. All courses for the minor must be taken for quality grades.
Grading and Academic Honesty
Students must receive quality grades in all courses that fulfill requirements for the BA or BS degree in Biological Sciences.
Academic dishonesty is a matter of grave concern to the faculty of the Biological Sciences Collegiate Division and will not be tolerated. Students should become familiar with the guidelines presented in Doing Honest Work in College by Charles Lipson and consult with each of their instructors to make sure they understand the specific expectations of each course. Consequences of academic dishonesty (including plagiarism) may include suspension or expulsion from the University.
Biological Sciences (BIOS) Courses
Students must confirm their registration with their instructors by the second class meeting or their registration may be canceled.
In the following course descriptions:
L indicates courses with a laboratory.
E indicates a course that can be counted towards a degree in Biological Sciences through the Ecology and Evolution Track.
GP indicates a course that can be counted towards a degree in Biological Sciences through the Global and Public Health Track.
CB indicates a course that can be counted towards a degree in Biological Sciences through the Computational Biology Track.
Health Professions Preparation Sequence for Non-Majors
This sequence (BIOS 20170- BIOS 20175) is an integrated set of biology courses designed to prepare non-biological sciences majors for application to medical school. This sequence cannot substitute for the Fundamentals Sequence in any of the tracks in the Biological Sciences major but can be used to fulfill requirements in the Biological Sciences Minor. However, completion of the Health Professions Preparation Sequence qualifies a student to take upper-level BIOS elective courses.
BIOS 20170. Microbial and Human Cell Biology. 100 Units.
This course is the entry point into an integrated biology sequence designed to prepare non-biology majors for application to schools in the health professions. We explore topics in human cell biology within the context of evolutionary biology, chemistry, microbiology, and medicine. We pay special attention to the influence of prokaryotes on the history of life and to the ecological interactions between humans and their microbiota, which have major implications for human health and disease. Students read and discuss papers from the scientific literature, attend discussions and gain experience with microbiological basic microscopy techniques in lab.
Prerequisite(s): This sequence is open only to students who are not planning to major in Biological Sciences or Biological Chemistry and cannot be applied to either of these majors. It is recommended that students start the sequence in their first or second year.
BIOS 20171. Human Genetics and Developmental Biology. 100 Units.
This course covers the fundamentals of genetics, with an emphasis on human traits and diseases. Topics include Mendelian genetics, simple and complex traits, genetic diseases, the human genome, and testing for human traits and diseases. After establishing a foundation in genetics, we will discuss mechanisms underlying differentiation and development in humans. We will focus on events that lead to gastrulation and the establishment of the body plan (how humans develop from an un-patterned egg into a recognizable human form). Other topics may include limb development and stem cell biology.
Prerequisite(s): BIOS 20170; must be taken concurrently with BIOS 20172.
BIOS 20172. Mathematical Modeling for Pre-Med Students. 100 Units.
This course covers mathematical approaches in biology and medicine, including basic statistics and hypothesis testing, mathematical modeling of biological systems, and an introduction to bioinformatics. Students will apply what they learn as they analyze data and interpret primary papers in the biological and clinical literature. BIOS 20172 lays the foundation for biomathematical approaches explored during subsequent courses in the BIOS 20170s sequence.
Prerequisite(s): BIOS 20170, concurrent enrollment in BIOS 20171
BIOS 20173. Perspectives of Human Physiology. 100 Units.
This course will explore the structure and function of the human body as a set of integrated, interdependent systems. We will continue the cellular, genetic, and developmental themes of the previous courses to explore the emergent functions of the human body, from cells to systems. The laboratory exercises will allow the students to experience the concepts discussed in lecture in a way that introduces them to the methods of academic research, including the application of mathematical models to physiological questions. Students will be asked to serve as test subjects in several of the laboratory exercises. Required weekly discussions include student presentations on papers from the scientific literature.
Prerequisite(s): BIOS 20170, BIOS 20171, BIOS 20172
BIOS 20175. Biochemistry and Metabolism. 100 Units.
The course introduces cellular biochemical metabolism. The chemical characteristics, biochemical properties, and function of carbohydrates, proteins, and lipids are introduced. Basic protein structure and enzyme kinetics including basic allosteric interactions are considered. The integration of carbohydrates, proteins, and lipids in cellular intermediary metabolism is examined including pathway regulation and bioenergetics. Adaptation of the pathways to changes in nutritional or disease state is used to highlight interrelationships in cellular metabolism.
Prerequisite(s): BIOS 20170, BIOS 20171, BIOS 20172, BIOS 20173
Fundamentals Sequence Courses for Biological Sciences Majors
Students registering for Fundamentals Sequence courses in the Biological Sciences major must have completed or placed out of general or honors chemistry or be enrolled concurrently in general or honors chemistry.
BIOS 20151. Introduction to Quantitative Modeling in Biology (Basic) 100 Units.
The goal for this course is to give future biologists the quantitative tools to fully participate in modern biological research. These include descriptive statistics, linear regression, stochastic independence and hypothesis testing, Markov models and stationary probability distributions, solutions of linear differential equations, equilibria and stability analysis of nonlinear differential equations. The ideas are applied to different areas of biology, e.g. molecular evolution, allometry, epidemiology, and biochemistry, and implemented by students in computer assignments using the R computational platform.
Prerequisite(s): Two quarters of calculus of any sequence (MATH 13200 or 15200 or 16200). First-year Biology Major standing only.
Note(s): This course is required to partially fulfill the general education requirement in biology for Biological Sciences majors in all tracks, except for students taking BIOS 20152 and students in the Advanced Biology sequence. This course cannot be used as a Topics course for the general education requirement for non-Biological Sciences majors.
BIOS 20152. Introduction to Quantitative Modeling in Biology (Advanced) 100 Units.
This is a more advanced version of 20151, intended for students with greater mathematical maturity. In addition to the topics covered in the regular version, students will learn about nonlinear least-squares fitting, eigenvalues and eigenvectors, bifurcations and bistability in differential equations. Additional applications will include phylogenetic distance and systems biology.
Prerequisite(s): MATH placement of 15200 or higher OR either MATH 15200 or MATH 16200 and second-year standing or higher.
Note(s): This course can replace BIOS 20151 to partially fulfill the general education requirement in biology for Biological Sciences majors in all tracks. This course cannot be used as a Topics course for the general education requirement for non-Biological Sciences majors.
BIOS 20153. Fundamentals of Ecology and Evolutionary Biology. 100 Units.
This course surveys the basic principles of ecology and evolutionary biology to lay the foundation for further study in all fields of biology. Broad ecological concepts, such as population growth, disease dynamics, and species interactions, will be explored through a combination of published data, simulations, and mathematical models. The emphasis is placed on “ecological thinking”. Essential topics in the modern study of evolutionary biology will be covered with a focus on both theory and empirical examples. Examples of topics include history of evolutionary thought, evidence for evolution, mechanisms of microevolution, phylogenetics, molecular evolution, and speciation.
Note(s): This course is required to partially fulfill the general education requirement in biology for Biological Sciences majors in all tracks, except for students taking the Advanced Biology sequence.
BIOS 20186. Fundamentals of Cell and Molecular Biology. 100 Units.
This course is an introduction to molecular and cellular biology that emphasizes the unity of cellular processes amongst all living organisms. Topics are the structure, function, and synthesis of nucleic acids and protein; structure and function of cell organelles and extracellular matrices; energetics; cell cycle; cells in tissues and cell-signaling; temporal organization and regulation of metabolism; regulation of gene expression; and altered cell functions in disease states.
Prerequisite(s): BIOS 20153 & at least concurrent registration in 20151 or 20152 or similar math prep. Avg. grade of C or higher in, and completion of, CHEM 10100-10200 or 11100-11200 or 12100-12200, a 5 on the AP Chem. exam, or consent. Reg. by lab sec.
Note(s): NSCI majors and other students may take BIO20186 without BIOS 20151/20152, 20153 unless they plan to pursue a double major in Biological Sciences. All students in BIOS 20186 will be expected to possess the competency in mathematical modeling of biological phenomena covered concurrently in BIOS 20151 or BIOS 20152.
BIOS 20187. Fundamentals of Genetics. 100 Units.
The goal of this course is to integrate recent developments in molecular genetics into the structure of classical genetics with an emphasis on recent advances in genetics and genomics. Topics include Mendelian inheritance, genotype-phenotype relationships, linkage analysis, modern gene mapping techniques, gene expression, model systems genetics and analysis of genetic pathways.
Prerequisite(s): BIOS 20186
BIOS 20188. Fundamentals of Physiology. 100 Units.
This course focuses on the physiological problems that animals (including humans) face in natural environments; solutions to these problems that the genome encodes; and the emergent physiological properties of the molecular, cellular, tissue, organ, and organismal levels of organization. Lectures and labs emphasize physiological reasoning, problem solving, and current research.
Prerequisite(s): BIOS 20187 or BIOS 20235
BIOS 20189. Fundamentals of Developmental Biology. 100 Units.
This course covers both the classical experiments that contributed to our understanding of developmental biology and the recent explosion of information about development made possible by a combination of genetic and molecular approaches. Examples from both vertebrate and invertebrate systems are used to illustrate underlying principles of animal development.
Prerequisite(s): BIOS 20187.
BIOS 20200. Introduction to Biochemistry. 100 Units.
This course meets the biochemistry requirement in the Biological Sciences major. This course examines the chemical nature of cellular components, enzymes, and mechanisms of enzyme activity, energy interconversion, and biosynthetic reactions. Strong emphasis is given to control and regulation of metabolism through macromolecular interactions.
Prerequisite(s): Completion of a Biological Sciences Fundamentals Sequence with an average grade of C and CHEM 22000-22100/23100 with an average grade of C.
BIOS 20196. Ecology and Conservation. 100 Units.
This course focuses on the contribution of ecological theory to the understanding of current issues in conservation biology. We emphasize quantitative methods and their use for applied problems in ecology (e.g., risk of extinction, impact of harvesting, role of species interaction, analysis of global change). Course material is drawn mostly from current primary literature; lab and field components complement concepts taught through lecture. Prerequisite(s): BIOS 20150, BIOS 20151 or BIOS 20152 Note(s): BIOS 20196 is identical to the previously offered BIOS 23251. Students who have taken BIOS 23251 should not enroll in BIOS 20196. Equivalent Course(s): ENSC 24400
Prerequisite(s): BIOS 20151 or BIOS 20152
Note(s): BIOS 20196 is identical to the previously offered BIOS 23251. Students who have taken BIOS 23251 should not enroll in BIOS 20196.
BIOS 20198. Biodiversity. 100 Units.
Section 1. Students will review the three biodiversity levels, i.e., genetic, species, and ecosystem, using a systemic approach to appraise the complex network of interactions among living organisms on our planet. During the course, students will survey the main taxonomic groups, such as archaea, bacteria, single-celled eukaryotes, fungi, plants, and animals, to identify their defining characteristics, describe their evolutionary origin, and evaluate their role in ecosystems. Students will integrate knowledge and analytical tools to assess the biodiversity in their neighborhoods, as well as differentiate parameters that impact distribution and abundance of organisms in their local ecosystems. Section 2. This course presents an overview of the diversity of living organisms, including archaea, bacteria, single-celled eukaryotes, fungi, plants, and animals, with an emphasis on their evolutionary histories, relationships, and the biological and evolutionary implications of the characteristic features of each group. We will explore how these different lineages have evolved remarkable solutions to challenges in locomotion, metabolism, and life in extreme environments. Work in the lab will take advantage of the diversity of organisms that live around, or are maintained at, the Marine Biological Laboratory at Woods Hole, MA.
Instructor(s): Section 1: O. Pineda, C. Andrews; Section 2: A. Gillis, O. Pineda Terms Offered: Spring. L. Section 1 will be taught on the Chicago campus. Section 2 will be taught during Spring Quarter at MBL in Woods Hole, MA (https://college.uchicago.edu/academics/mbl-spring-quarter-biology)
Prerequisite(s): PQ: BIOS 20153 for Biological Sciences majors; not required for GeoSci majors or students taking BIOS 20198 as part of a general education sequence
Advanced Biology Fundamentals Sequence
This is an accelerated four-quarter Fundamentals sequence (BIOS 20234-20236 and BIOS 20188) designed for motivated first-year students with exceptionally strong science and mathematics backgrounds and an intense interest in research in the biological sciences. A score of 4 or 5 on the AP Biology test or consent is required. Successful students usually also have strong preparation in biology, chemistry, and calculus as well as some experience in computer programming. Students are expected to devote significant time to this sequence (minimum four to eight hours/week for reading primary literature and background information and for working problem sets, in addition to attendance at lectures and participation in laboratory exercises and discussion sections). Upon completion of the first three quarters of the Advanced Biology sequence, students will have three credits towards the Biological Sciences major and they will have met the general education requirement in the biological sciences.
Note: Biological Sciences majors who opt not to complete the sequence after the first quarter (BIOS 20234 Molecular Biology of the Cell) should take BIOS 20151/BIOS 20152, which will be applied to their general education requirement in the Biological Sciences along with their AP Biology credit. BIOS 20234 would be counted as a credit towards the Biological Sciences major. Students would then complete the major by following the requirements for either the Biology Track or an Interdisciplinary Biology Track.
BIOS 20234. Molecular Biology of the Cell. 100 Units.
This course covers the fundamentals of molecular and cellular biology. Topics include protein structure and function; DNA replication, repair, and recombination; transcription, translation, control of gene expression; cytoskeletal dynamics; protein modification and stability; cellular signaling; cell cycle control; mitosis; and meiosis.
Prerequisite(s): Score of 4 or 5 on the AP biology test or consent.
Note(s): To continue in the sequence, students must receive a minimum grade of B- in BIOS 20234
BIOS 20235. Biological Systems. 100 Units.
Students preparing for the health professions must take BIOS 20235 and 20188 in sequence. This course builds upon molecular cell biology foundations to explore how biological systems function. Topics include classical and molecular genetics, developmental signaling networks, genomics, proteomics, transcriptomics, and biological networks.
Prerequisite(s): A grade of B- or above in BIOS 20234
BIOS 20236. Biological Dynamics. 100 Units.
This class introduces the use of quantitative approaches to study biological dynamics. Deeper exploration of cellular and developmental processes introduced in BIOS 20234 and BIOS 20235 will emphasize the use of quantitative analysis and mathematical modeling to infer biological mechanisms from molecular interactions. The lab portion of the class will introduce basic approaches for simulating biological dynamics using examples drawn from the lectures.
Prerequisite(s): BIOS 20234 and BIOS 20235 with a minimum grade of B- in each course.
BIOS 20188. Fundamentals of Physiology. 100 Units.
This course focuses on the physiological problems that animals (including humans) face in natural environments; solutions to these problems that the genome encodes; and the emergent physiological properties of the molecular, cellular, tissue, organ, and organismal levels of organization. Lectures and labs emphasize physiological reasoning, problem solving, and current research.
Instructor(s): Winter: J. Kennedy; Spring: D. McGehee, C. Andrews Terms Offered: Spring Winter. L.
Prerequisite(s): BIOS 20187 or BIOS 20235
Upper-level Elective Courses
Course numbers 21000-28999
These courses assume mastery of the material covered in the Fundamentals Sequences and explore specific areas of biology at an advanced level. In most cases, students will be reading primary scientific literature. Students who have not yet completed the Fundamentals Sequence should consult with the course instructor and the BSCD Senior Advisers before registering for an upper-level elective course. Students must confirm their registration with their instructors by the second class meeting or their registration may be canceled.
BIOS 21216. Introduction to Statistical Genetics. 100 Units.
This course focuses on genetic models for complex human disorders and quantitative traits. Topics covered also include linkage and linkage disequilibrium mapping and genetic models for complex traits, and the explicit and implicit assumptions of such models.Prerequisite(s): For Biological Sciences majors: Three quarters of a Biological Sciences Fundamentals sequence
Equivalent Course(s): HGEN 47100
BIOS 21229. Genome Informatics: How Cells Reorganize Genomes. 100 Units.
This course deals with the molecular and cellular basis of genetic change. We discuss DNA repair functions, mutator loci, induced mutation, mechanisms of homologous recombination and gene conversion, site-specific recombination, transposable elements and DNA rearrangements, reverse transcription and retrotransposons, transposable vector systems for making transgenic organisms, and genetic engineering of DNA sequences in antibody formation. Discussion section required.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20187 or BIOS 20235
Note(s): E.
BIOS 21236. Genetics of Model Organisms. 100 Units.
A small number of organisms have been chosen for extensive study by biologists. The popularity of these organisms derives largely from the fact that their genomes can be easily manipulated, allowing sophisticated characterization of biological function. This course covers modern methods for genetic analysis in budding yeast (Saccharomyces cerevisiae), fruit flies (Drosophila melanogaster), plants (Arabidopsis thaliana), and mice (Mus musculus). Case studies demonstrate how particular strengths of each system have been exploited to understand such processes as genetic recombination, pattern formation, and epigenetic regulation of gene expression.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence including BIOS 20187 or BIOS 20235
BIOS 21237. Developmental Mechanisms. 100 Units.
This course provides an overview of the fundamental questions of developmental biology, with particular emphasis on the genetic, molecular and cell biological experiments that have been employed to reach mechanistic answers to these questions. Topics covered will include formation of the primary body axes, the role of local signaling interactions in regulating cell fate and proliferation, the cellular basis of morphogenesis, and stem cells.
Prerequisite(s): For undergraduates only: Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20189, or BIOS 20235. AND CONSENT OF INSTRUCTOR
Equivalent Course(s): MGCB 36400, DVBI 36400
BIOS 21238. Cell Biology II. 100 Units.
This course covers the mechanisms with which cells execute fundamental behaviors. Topics include signal transduction, cell cycle progression, cell growth, cell death, cancer biology, cytoskeletal polymers and motors, cell motility, cytoskeletal diseases, and cell polarity. Each lecture will conclude with a dissection of primary literature with input from the students. Students will write and present a short research proposal, providing excellent preparation for preliminary exams.
Prerequisite(s): For undergraduates: Three quarters of a Biological Sciences Fundamentals Sequence.
Equivalent Course(s): BCMB 31700, DVBI 31700, MGCB 31700
BIOS 21249. Organization, Expression, and Transmission of Genome Information. 100 Units.
This seminar course examines how genomes are organized for coding sequence expression and transmission to progeny cells. The class discusses a series of key papers in the following areas: bacterial responses to external stimuli and genome damage, control of eukaryotic cell differentiation, complex loci regulating developmental expression in animals, centromere structure and function, position effect variegation, chromatin domains, chromatin remodeling, RNAi, and chromatin formatting.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence. Recommended for Advanced Biology students
BIOS 21306. Human Genetics and Evolution. 100 Units.
The goal of this course is to provide an evolutionary perspective on the molecular genetic bases of human diseases and non-clinical human traits. The course covers fundamental concepts and recent progress in Mendelian and complex trait mapping as well as evolutionary principles as they apply to genomics analyses of DNA sequence variation in human populations. These topics will be introduced through lectures and will be complemented by discussion and student presentations of original research papers.
Prerequisite(s): Three quarters of a Biological Fundamentals Sequence including BIOS 20187 or BIOS 20235.
BIOS 21317. Topics in Biological Chemistry. 100 Units.
Required of students who are majoring in biological chemistry. This course examines a variety of biological problems from a chemical and structural perspective, with an emphasis on molecular machines. Topics include macromolecular structure-function relationships, DNA synthesis and repair, RNA folding and function, protein synthesis, targeting and translocation, molecular motors, membrane proteins, photosynthesis, and mechanisms of signal transduction. Computer graphics exercises and in-class journal clubs complement the lecture topics.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence and BIOS 20200.
BIOS 21328. Biophysics of Biomolecules. 100 Units.
This course covers the properties of proteins, RNA, and DNA, as well as their interactions. We emphasize the interplay between structure, thermodynamics, folding, and function at the molecular level. Topics include cooperativity, linked equilibrium, hydrogen exchange, electrostatics, diffusion, and binding.
Equivalent Course(s): BPHS 31000, BCMB 32200
BIOS 21349. Protein Structure and Functions in Medicine. 100 Units.
This course explores how molecular machinery works in the context of medicine (vision, fight or flight, cancer, and action of drugs). We first explore the physical and biochemical properties of proteins in the context of cellular signaling. We then examine how proteins and other cellular components make up the signal transduction pathway of humans and conduct their biological functions. The course engages students to strengthen their scientific communication and teaching skills via the in-class podcast, oral examinations, computer-aided structural presentations, student lectures, and discussions.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence. Biochemistry strongly recommended.
Equivalent Course(s): CABI 31900, NURB 33500
BIOS 21356. Vertebrate Development. 100 Units.
This advanced-level course combines lectures, student presentations, and discussion sessions. It covers major topics on the developmental biology of embryos (e.g. formation of the germ line, gastrulation, segmentation, nervous system development, limb pattering, organogenesis). We make extensive use of the primary literature and emphasize experimental approaches including embryology, genetics, and molecular genetics.
Prerequisite(s): For Biological Sciences majors: Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20189 or BIOS 20190
Equivalent Course(s): MGCB 35600, ORGB 33600, DVBI 35600
BIOS 21358. Simulation, Modeling, and Computation in Biophysics. 100 Units.
This course develops skills for modeling biomolecular systems. Fundamental knowledge covers basic statistical mechanics, free energy, and kinetic concepts. Tools include molecular dynamics and Monte Carlo simulations, random walk and diffusion equations, and methods to generate random Gaussian and Poisson distributors. A term project involves writing a small program that simulates a process. Familiarity with a programming language or Mathlab would be valuable.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence, BIOS 20200 and BIOS 26210-26211, or consent from instructor
Equivalent Course(s): CPNS 31358, BCMB 31358, CHEM 31358
BIOS 21360. Advanced Molecular Biology. 100 Units.
This course covers genome structures, transcription of DNA to RNA, messenger RNA splicing, translation of RNA to protein, transcriptional and post-transcriptional gene regulations, non-coding RNA functions, epigenetics and epi-transcriptomics. Basic methods in molecular biology will also be covered. The course also includes special, current topics on genomics, single molecule studies of gene expression, epi-transcriptomics, and others.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20187 or BIOS 20235 and Organic Chemistry, or consent of instructor.
BIOS 21415. Stem Cells in Development and Diseases. 100 Units.
This course will provide a survey of concepts and biology of stem cells based on experimental evidence for their involvement in developmental processes and human diseases. Topics will discuss classic models as well as recent advance made in the biomedical research community.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, including BIOS 20186 and BIOS 20187
BIOS 21416. Stem Cells and Regeneration. 100 Units.
The course will focus on the basic biology of stem cells and regeneration, highlighting biomedically relevant findings that have the potential to translate to the clinic. We will cover embryonic and induced pluripotent stem cells, as well as adult stem cells from a variety of systems, both invertebrate and vertebrates.
Prerequisite(s): For undergraduates only: Three quarters of a Biological Sciences fundamentals Sequence
Equivalent Course(s): DVBI 36200
BIOS 21506. Biological Physics. 100 Units.
This course is an introduction to the physics of living matter. Its goal is to understand the design principles from physics that characterize the condensed and organized matter of living systems. Topics include: basic structures of proteins, nucleotides, and biological membranes; application of statistical mechanics to diffusion and transport; hydrodynamics of low Reynolds number fluids; thermodynamics and chemical equilibrium; physical chemistry of binding affinity and kinetics; solution electrostatics and depletion effect; biopolymer mechanics; cellular mechanics and motions; molecular motors.
Terms Offered: Spring
Prerequisite(s): PHYS 13300 or PHYS 14300
Note(s): Students majoring in Physics may use this course either as a Physics elective OR as a upper level elective in the Biological Sciences major.
Equivalent Course(s): PHYS 25500
BIOS 21507. Stem Cell Biology, Regeneration, and Disease Modeling. 100 Units.
In this course, students will gain an understanding of the science and application of tissue engineering, a field that seeks to develop technologies for restoring lost function in diseased or damaged tissues and organs. The course will first introduce the underlying cellular and molecular components and processes relevant to tissue engineering: extracellular matrices, cell/matrix interactions such as adhesion and migration, growth factor biology, stem cell biology, inflammation, and innate immunity. The course will then discuss current approaches for engineering a variety of tissues, including bone and musculoskeletal tissues, vascular tissues, skin, nerve, and pancreas. Students will be assessed through in-class discussions, take-home assignments and exams, and an end-of-term project on a topic of the student’s choice.
Prerequisite(s): BIOS 20186 or BIOS 20234
Equivalent Course(s): MENG 33110, MPMM 34300, MENG 23110
BIOS 21510. Chromatin & Epigenetics. 100 Units.
This course presents the dynamic nature of the physiological genome – an exquisitely regulated macromolecular polymer termed chromatin – that gives rise to hundreds of cellular identities, each adaptable to various environmental milieu. Students will explore the mechanisms and determinants that shape distinct chromatin conformations and their influences on gene expression and cell fate. Topics include histone modifications, ATP-dependent chromatin remodeling, DNA methylation, Polycomb, heterochromatin, topologically associating domains, phase transition, and non-coding RNA. Students will apply their knowledge to understand the role of chromatin structure in development (e.g. lineage specification), disease (e.g. cancer) and potential therapeutics (e.g. cellular reprogramming). Students will leave the course with an in-depth knowledge of cutting-edge epigenetic methodologies as well as the ability to critically evaluate primary literature and propose original scientific research.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence
Equivalent Course(s): IMMU 33000
BIOS 22233. Comparative Vertebrate Anatomy. 100 Units.
This course covers the structure and function of major anatomical systems of vertebrates. Lectures focus on vertebrate diversity, biomechanics, and behavior (from swimming and feeding to running, flying, seeing, and hearing). Labs involve detailed dissection of animals (muscles, organs, brains) and a focus on skull bones in a broad comparative context from fishes to frogs, turtles, alligators, mammals, birds, and humans. Field trip to Field Museum and visit to medical school lab for human dissection required.
Instructor(s): M. Westneat. L. Terms Offered: Winter
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence.
Equivalent Course(s): ORGB 32233
BIOS 22245. Biomechanics: How Life Works. 100 Units.
This course will explore form and function in a diversity of organisms, using the principles of physics and evolutionary theory to understand why living things are shaped as they are and behave in such a diversity of ways. Biomechanics is at the interface of biology, physics, art, and engineering. We will study the impact of size on biological systems, address the implications of solid and fluid mechanics for organismal design, learn fundamental principles of animal locomotion, and survey biomechanical approaches. Understanding the mechanics of biological organisms can help us gain insight into their behavior, ecology and evolution.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence. Physics useful.
Note(s): This course will include a lab and will alternate years with BIOS 22233. E.
Equivalent Course(s): EVOL 32245, ORGB 32245
BIOS 22250. Chordates: Evolution and Comparative Anatomy. 100 Units.
Chordate biology emphasizes the diversity and evolution of modern vertebrate life, drawing on a range of sources (from comparative anatomy and embryology to paleontology, biomechanics, and developmental genetics). Much of the work is lab-based, with ample opportunity to gain firsthand experience of the repeated themes of vertebrate body plans, as well as some of the extraordinary specializations manifest in living forms. The instructors, who are both actively engaged in vertebrate-centered research, take this course beyond the boundaries of standard textbook content.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence, including BIOS 20187 or BIOS 20235
Equivalent Course(s): ORGB 30250, EVOL 30200
BIOS 22260. Vertebrate Structure and Function. 100 Units.
This course is devoted to vertebrate bones and muscles, with a focus on some remarkable functions they perform. The first part takes a comparative look at the vertebrate skeleton via development and evolution, from lamprey to human. The major functional changes are examined as vertebrates adapted to life in the water, on land, and in the air. The second part looks at muscles and how they work in specific situations, including gape-feeding, swimming, leaping, digging, flying, and walking on two legs. Dissection of preserved vertebrate specimens required.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and consent of instructor. See also http://paulsereno.uchicago.edu/fossil_lab/classes/vertebrate_structure_and_function for more information.
BIOS 22265. Human Origins: Milestones in Human Evolution and the Fossil Record. 100 Units.
This course aims at exploring the fundamentals of human origins by tracking the major events during the course of human evolution. Starting with a laboratory based general introduction to human osteology and muscle function, the latest on morphological and behavioral evidence for what makes Homo sapiens and their fossil ancestors unique among primates will be presented. Our knowledge of the last common ancestor will be explored using the late Miocene fossil record followed by a series of lectures on comparative and functional morphology, adaptation and biogeography of fossil human species. With focus on the human fossil record, the emergence of bipedalism, advent of stone tool use and making, abandonment of arboreality, advent of endurance walking and running, dawn of encephalization and associated novel life histories, language and symbolism will be explored. While taxonomic identities and phylogenetic relationships will be briefly presented, the focus will be on investigating major adaptive transitions and how that understanding helps us to unravel the ecological selective factors that ultimately led to the emergence of our species. The course will be supported by fresh data coming from active field research conducted by Prof. Alemseged and state of the art visualization methods that help explore internal structures. By tracing the path followed by our ancestors over time, this course is directly relevant to reconnoitering the human condition today and our place in nature.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, or consent of Instructor.
Equivalent Course(s): ORGB 33265, ANTH 28110
BIOS 22270. Bones and Genes: The Story of Homo Sapiens. 100 Units.
The primary aim of this course is to explore the biological and behavioral makings of our species, anatomically modern Homo sapiens, by considering hypotheses, models, evidence, and the latest consensus from the complementary fields of paleoanthropology and genetics. The course is divided into two blocks, one focusing on our origins and the other on migrations across the globe. After a brief introduction to the human skeleton, students will learn about the pool of potential direct ancestors that lived before Homo sapiens emerged 300,000 year ago, as well as the environmental and cultural environments that may have led to the arrival of our species. This will be complemented by an evaluation of competing genetic models for the origin of our species and evidence for genetic intermixing with archaic humans such as Neanderthals and Denisovans. We will, then, follow modern humans out of Africa and study the fossil, archaeological, and genetic evidence for the peopling of the planet and adaptations to novel environments. Finally, the contributions of paleoanthropology and genetics to our understanding of behavior, cognition, physical traits/phenotypes, diet, and disease evolution will be explored. Complementary laboratory and discussion sessions will expose students to state-of-the-art methods and current research endeavors in these fields.
Prerequisite(s): BIOS Majors: Three quarters of a Biological Sciences Fundamentals Sequence. Also open to students in Anthropology and Genetics with an interest in human evolution, or consent of instructors.
BIOS 22306. Evolution and Development. 100 Units.
The course will provide a developmental perspective on animal body plans in phylogenetic context. The course will start with a few lectures, accompanied by reading assignments. Students will be required to present a selected research topic that fits the broader goal of the course and will be asked to submit a referenced written version of it after their oral presentation. Grading will be based on their presentation (oral and written) as well as their contributions to class discussions. Prerequisite(s): Advanced undergraduates may enroll with the consent of the instructor.
Prerequisite(s): Advanced undergraduates may enroll with the consent of the instructor.
Equivalent Course(s): ORGB 33850, DVBI 33850, EVOL 33850
BIOS 23100. Dinosaur Science. 100 Units.
This introductory-level (but intensive) class includes a ten-day expedition to South Dakota and Wyoming (departing just after graduation). We study basic geology (e.g., rocks and minerals, stratigraphy, Earth history, mapping skills) and basic evolutionary biology (e.g., vertebrate and especially skeletal anatomy, systematics and large-scale evolutionary patterns). This course provides the knowledge needed to discover and understand the meaning of fossils as they are preserved in the field, which is applied to actual paleontological sites. Participants fly from Chicago to Rapid City, and then travel by van to field sites. There they camp, prospect for, and excavate fossils from the Cretaceous and Jurassic Periods. Field trip required.
Prerequisite(s): Consent of instructor, three quarters of a Biological Sciences Fundamentals Sequence and a prior course in general science, preferably geology. See also http://paulsereno.uchicago.edu/fossil_lab/classes/dinosaur_science for more information.
BIOS 23232. Ecology and Evolution in the Southwest. 100 Units.
This lecture course focuses on the ecological communities of the Southwest, primarily on the four subdivisions of the North American Desert, the Chihuahuan, Sonoran, Mohave, and Great Basin Deserts. Lecture topics include climate change and the impact on the flora and fauna of the region; adaptations to arid landscapes; evolutionary, ecological, and conservation issues in the arid Southwest, especially relating to isolated mountain ranges; human impacts on the biota, land, and water; and how geological and climatic forces shape deserts.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, or consent of instructor
BIOS 23233. Ecology and Evolution in the Southwest:Field School. 100 Units.
This lecture/lab course is the same course as BIOS 23232, but includes a lab section preparatory to a three-week field trip at end of Spring Quarter, specific dates to be announced. Our goal in the lab is to prepare proposals for research projects to conduct in the field portion of this course. Field conditions are rugged. Travel is by fifteen-passenger van. Lodging during most of this course is tent camping on developed campsites.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and consent of instructor
BIOS 23247. Bioarchaeology and Forensic Anthropology: Approaches to the Past. 100 Units.
This course is intended to provide students with a thorough understanding of bioanthropological, osteological and forensic methods used in the interpretation of past and present behavior by introducing osteological methods and anthropological theory. In particular, lab instruction stresses hands-on experience in analyzing human remains, whereas seminar classes integrate bioanthropological theory and its application to specific archaeological and forensic cases throughout the world. At the end of this course, students will be able to identify, document, and interpret human remains from archaeological and forensic contexts. Lab and seminar-format classes each meet weekly.
Note(s): This course qualifies as a Methodology selection for Anthropology majors.
Equivalent Course(s): LACS 28400, ANTH 38800, LACS 38400, ANTH 28400
BIOS 23249. Animal Behavior. 100 Units.
This course introduces the mechanism, ecology, and evolution of behavior, primarily in nonhuman species, at the individual and group level. Topics include the genetic basis of behavior, developmental pathways, communication, physiology and behavior, foraging behavior, kin selection, mating systems and sexual selection, and the ecological and social context of behavior. A major emphasis is placed on understanding and evaluating scientific studies and their field and lab techniques.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence.
Equivalent Course(s): PSYC 23249, CHDV 23249
BIOS 23254. Mammalian Ecology. 100 Units.
This course introduces the diversity and classification of mammals and their ecological relationships. Lectures cover natural history, evolution, and functional morphology of major taxonomic groups. Lab sessions focus on skeletal morphology, identifying traits of major taxonomic groups, and methods of conducting research in the field. Participation in field trips, occasionally on Saturday, is required.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and third-year standing or consent of instructor.
BIOS 23261. Invertebrate Paleobiology and Evolution. 100 Units.
This course provides a detailed overview of the morphology, paleobiology, evolutionary history, and practical uses of the invertebrate and microfossil groups commonly found in the fossil record. Emphasis is placed on understanding key anatomical and ecological innovations within each group and interactions among groups responsible for producing the observed changes in diversity, dominance, and ecological community structure through evolutionary time. Labs supplement lecture material with specimen-based and practical application sections. An optional field trip offers experience in the collection of specimens and raw paleontological data. Several “Hot Topics” lectures introduce important, exciting, and often controversial aspects of current paleontological research linked to particular invertebrate groups. (L)
Prerequisite(s): GEOS 13100 and 13200 or equivalent; completion of the general education requirement in the Biological Sciences, or consent of instructor; students majoring in Biological Sciences only.
Equivalent Course(s): EVOL 32400, GEOS 26300, GEOS 36300
BIOS 23262. Mammalian Evolutionary Biology. 100 Units.
This course examines mammalian evolution-the rise of living mammals from ancient fossil ancestors stretching back over 300 million years. Lectures focus on the evolutionary diversification of mammals, including anatomical structure, evolutionary adaptations, life history, and developmental patterns. Labs involve detailed comparative study of mammalian skeletons, dissection of muscular and other systems, trips to the Field Museum to study fossil collections, and studies of human anatomy at the Pritzker School of Medicine. Students will learn mammalian evolution, functional morphology, and development, and will gain hands-on experience in dissection. Taught by instructors who are active in scientific research on mammalian evolution, the course is aimed to convey new insights and the latest progress in mammalian paleontology, functional morphology, and evolution. Prerequisite(s): Second-year standing and completion of a Biological Sciences Fundamentals sequence; or GEOS 13100-13200 or GEOS 22300, or consent of instructors.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence or consent of instructors.
Equivalent Course(s): EVOL 31201, ORGB 31201
BIOS 23266. Evolutionary Adaptation. 100 Units.
This course deals with the adaptation of organisms to their environments and focuses on methods for studying adaptation. Topics include definitions and examples of adaptation, the notion of optimization, adaptive radiations, the comparative method in evolutionary biology, and the genetic architecture of adaptive traits. Students will draw on the logical frameworks covered in lecture as they evaluate primary papers and prepare two writing assignments on an adaptive question of their choice.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20153 and BIOS 20187 or BIOS 20234 and 20235 or BIOS 20170 and 20171 or consent of instructor.
BIOS 23289. Marine Ecology. 100 Units.
This course provides an introduction into the physical, chemical, and biological forces controlling the function of marine ecosystems and how marine communities are organized. The structures of various types of marine ecosystems are described and contrasted, and the lectures highlight aspects of marine ecology relevant to applied issues such as conservation and harvesting.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and prior introductory course in ecology or consent of instructor.
Equivalent Course(s): ENST 23289
BIOS 23299. Plant Development and Molecular Genetics. 100 Units.
Genetic approaches to central problems in plant development will be discussed. Emphasis will be placed on embryonic pattern formation, meristem structure and function, reproduction, and the role of hormones and environmental signals in development. Lectures will be drawn from the current literature; experimental approaches (genetic, cell biological, biochemical) used to discern developmental mechanisms will be emphasized. Graduate students will present a research proposal in oral and written form; undergraduate students will present and analyze data from the primary literature, and will be responsible for a final paper.
Prerequisite(s): For undergraduates only: Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20187 or BIOS 20235.
Equivalent Course(s): ECEV 32900, DVBI 36100, MGCB 36100
BIOS 23404. Reconstructing the Tree of Life: An Introduction to Phylogenetics. 100 Units.
This course is an introduction to the tree of life (phylogeny): its conceptual origins, methods for discovering its structure, and its importance in evolutionary biology and other areas of science. Topics include history and concepts, sources of data, methods of phylogenetic analysis, and the use of phylogenies to study the tempo and mode of lineage diversification, coevolution, biogeography, conservation, molecular biology, development, and epidemiology. One Saturday field trip and weekly computer labs required in addition to scheduled class time. This course is offered in alternate (odd) years.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence or consent of instructor
Equivalent Course(s): EVOL 35401
BIOS 23406. Biogeography. 100 Units.
In this course, we examine the uneven distribution of life on Earth and how ecology, evolution, and Earth sciences help us understand its past, present, and future. Topics include diversity gradients and hotspots, islands, methods for inferring the boundaries and histories of biotas, models and laws in biogeography, and the relevance of biogeography in the Anthropocene.Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence and a course in either ecology, evolution, or earth history; or consent of instructor
Equivalent Course(s): ENST 25500, GEOG 35500, EVOL 45500, GEOG 25500
BIOS 23409. The Ecology and Evolution of Infectious Diseases. 100 Units.
Understanding the ecology and evolution of infectious diseases is crucial for both human health and for preservation of the natural environment. In this course, we combine mathematical modeling with ecological and evolutionary analyses to understand how fundamental mechanisms of host-pathogen interactions are translated into disease dynamics and host-pathogen co-evolution.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and Integral calculus.
BIOS 23410. Complex Interactions: Coevolution, Parasites, Mutualists, and Cheaters. 100 Units.
This course emphasizes the enormous diversity of interactions between organisms. It is an introduction to the biology and ecology of parasitic and mutualistic symbiotic associations and their evolution. Topics include endosymbioses and their impact on the evolution of photosynthetic organisms, bacterial symbioses (e.g., nitrogen fixation), symbioses that fungi evolved with plants and animals (e.g., endophytes, mycorrhizae, lichens), pollination biology, insect-plant associations, and associations of algae with animals. Methods to elucidate the evolution of these associations are discussed with a focus on coevolutionary events and the origin of cheaters.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence.
BIOS 24130. Systems Neuroscience. 100 Units.
This course covers vertebrate and invertebrate systems neuroscience with a focus on the anatomy, physiology, and development of sensory and motor control systems. The neural bases of form and motion perception, locomotion, memory, and other forms of neural plasticity are examined in detail. We also discuss clinical aspects of neurological disorders.
Prerequisite(s): NSCI 20101, NSCI 20111 or consent of instructors
Equivalent Course(s): PSYC 24010, NSCI 20130
BIOS 24217. Conquest of Pain. 100 Units.
This course examines the biology of pain and the mechanisms by which anesthetics alter the perception of pain. The approach is to examine the anatomy of pain pathways both centrally and peripherally, and to define electrophysiological, biophysical, and biochemical explanations underlying the action of general and local anesthetics. We discuss the role of opiates and enkephalins. Central theories of anesthesia, including the relevance of sleep proteins, are also examined.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, CHEM 2200-22100-22200 or BIOS 20200 and prior course in neurobiology or physiology is recommended.
Equivalent Course(s): NSCI 22450
BIOS 24231. Methods in Computational Neuroscience. 100 Units.
Topics include (but are not limited to): relating neural data to behavior, Signal Detection theory, models of vision and artificial neural networks, Information Theory, Generalized Linear Models, dimensionality reduction, classification, and clustering.
Prerequisite(s): For Neuroscience Majors: NSCI 20130, BIOS 26210 and BIOS 26211 which must be taken concurrently, or consent of instructor.
Note(s): CB.
Equivalent Course(s): NSCI 23700, PSYC 24231, CPNS 34231
BIOS 24248. Biological Clocks and Behavior. 100 Units.
This course will address physiological and molecular biological aspects of circadian and seasonal rhythms in biology and behavior. The course will primarily emphasize biological and molecular mechanisms of CNS function, and will be taught at a molecular level of analysis from the beginning of the quarter. Those students without a strong biology background are unlikely to resonate with the course material.
Prerequisite(s): A quality grade in PSYC 20300 Introduction to Biological Psychology. Additional biology courses are desirable. Completion of Core biology will not suffice as a prerequisite.
Equivalent Course(s): NSCI 21400, PSYC 21750, HLTH 21750
BIOS 24251. Neurons and Glia: A Cellular and Molecular Perspective. 100 Units.
This course will be an interactive, in-depth analysis of the cell biology of neurons and glia. We will learn and discuss the latest techniques used, for example, to study the structure and function of neuronal proteins. In this way we will illuminate the central concepts that define our understanding of the cell and molecular biology of neurons and glia. The course will consist of lectures and critical reading of contemporary literature.
Prerequisite(s): Neuroscience Majors: NSCI 20101-20130 (Fundamental Neuroscience Sequence) Biological Sciences Majors: NSCI 20101-20130, or three quarters of a Biological Sciences Fundamentals Sequence
Equivalent Course(s): NSCI 23810, NURB 34810
BIOS 24408. Modeling and Signal Analysis for Neuroscientists. 100 Units.
The course provides an introduction into signal analysis and modeling for neuroscientists. We cover linear and nonlinear techniques and model both single neurons and neuronal networks. The goal is to provide students with the mathematical background to understand the literature in this field, the principles of analysis and simulation software, and allow them to construct their own tools. Several of the 90-minute lectures include demonstrations and/or exercises in Matlab.
Prerequisite(s): Undergraduates: Biology Major – BIOS 26210 and 26211, or consent of instructor. Neuroscience Major – NSCI 20130, BIOS 26210 and 26211, or consent of instructor.
Equivalent Course(s): CPNS 32111, NSCI 24000
BIOS 25108. Cancer Biology. 100 Units.
This course covers the fundamentals of cancer biology with a focus on the story of how scientists identified the genes that cause cancer. The emphasis is on “doing” science rather than “done” science: How do scientists think, how do they design experiments, where do these ideas come from, what can go wrong, and what is it like when things go right? We stress the role that cellular subsystems (e.g., signal transduction, cell cycle) play in cancer biology, as well as evolving themes in cancer research (e.g., ongoing development of modern molecular therapeutics).
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence.
BIOS 25109. Topics in Reproduction and Cancer. 100 Units.
This course focuses on several aspects of the molecular and cellular biology of human reproduction. We also discuss the basis of chemical/viral carcinogenesis and the progression, treatment, and prevention of cancer. The role of steroid hormones and their receptors in the control of growth, development, and specialized cell function is discussed in the context of normal and abnormal gene expression in human development and disease. Key historical events, research approaches, utilization of knowledge, recent advances in drug design and herbal medicines, and philosophies of scientific research are also covered.
Prerequisite(s): For Biology majors: Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20187 or BIOS 20235 and Biochemistry, or consent of Instructor.
BIOS 25126. Animal Models of Human Disease. 100 Units.
This course introduces the use of animals in biomedical research for the purposes of understanding, treating, and curing human disease. Particular emphasis is placed on rodent models in the context of genetic, molecular, and immunologic manipulations, as well as on the use of large animal surgical models. University veterinarians also provide information regarding humane animal care.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence including a course in genetics, or consent of instructor
BIOS 25206. Fundamentals of Bacterial Physiology. 100 Units.
This course meets one of the requirements of the microbiology specialization. This course introduces bacterial diversity, physiology, ultra-structure, envelope assembly, metabolism, and genetics. In the discussion section, students review recent original experimental work in the field of bacterial physiology.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, or consent of instructor
Equivalent Course(s): MICR 30600
BIOS 25207. Fundamentals and Applications of the Human Microbiota. 100 Units.
Thousands of microbes colonize the human body to collectively establish the human microbiota. Research findings over the past two decades have led to a growing appreciation of the importance of the microbiota in various facets of human health. This course will explore the human microbiota through a critical review of the primary scientific literature. The first portion of the course will cover distinct ways by which the human microbiota impacts mammalian health. The second part of the course will focus on established and developing microbiota-targeting biotechnologies. Students will leave the course with a general understanding of the current state of human microbiota research and its therapeutic and diagnostic applications.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence. Third or fourth year standing or consent of instructor.
Equivalent Course(s): MICR 38000, MENG 23210, MENG 33210
BIOS 25216. Molecular Basis of Bacterial Disease. 100 Units.
This course meets one of the requirements of the microbiology specialization. This lecture/discussion course involves a comprehensive analysis of bacterial pathogens, the diseases that they cause, and the molecular mechanisms involved during pathogenesis. Students discuss recent original experimental work in the field of bacterial pathogenesis.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence.
Equivalent Course(s): MICR 31600
BIOS 25226. Endocrinology I: Cell Signaling. 100 Units.
The subject matter of this course considers the wide variety of intracellular mechanisms that, when activated, change cell behavior. We cover aspects of intracellular signaling, the latter including detailed discussions of receptors, G-proteins, cyclic nucleotides, calcium and calcium-binding proteins, phosphoinositides, protein kinases, and phosphatases.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and BIOS 20200.
Equivalent Course(s): NPHP 33600
BIOS 25227. Endocrinology II: Systems and Physiology. 100 Units.
Endocrinology is the study of hormones, which are chemical messengers released by tissues that regulate the activity of other cells in the body. This course covers the classical hormone systems, including hormones regulating metabolism, energy mobilization and storage, calcium and phosphate metabolism, reproduction, growth, “fight or flight,” and circadian rhythms. We focus on historical perspective, the mechanisms of action, homeostatic regulation, and relevant human diseases for each system.
Instructor(s): M. Brady, R. Cohen Terms Offered: Winter
Prerequisite(s): Completion of the first three quarters of a Biological Fundamentals Sequence.
BIOS 25228. Endocrinology III: Human Disease. 100 Units.
A Fundamentals Sequence (BIOS 20180s or 20190s, or AP 5 sequence) and BIOS 25227 recommended but not required. This course is a modern overview of the patho-physiologic, genetic, and molecular basis of human diseases with nutritional perspectives. We discuss human diseases (e.g., hypertension, cardiovascular diseases, obesity, diabetes, osteoporosis, alopecia).
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence is required and BIOS 25227 is strongly recommended.
BIOS 25256. Immunobiology. 100 Units.
This comprehensive survey course presents an integrated coverage of the tactics and logistics of innate and adaptive immunity in mammalian organisms. It conveys the elegance and complexity of immune responses against infectious agents. It introduces their implications in autoimmune diseases, cancer and organ transplantation and presents some of the emerging immunotherapeutics that are transforming health care. Prior knowledge of microbiology (e.g., BIOS 25206) will be advantageous. Prerequisite(s): Completion of a Biological Sceinces Fundamentals Sequence which includes, Cell, Genetics, Developmental Biology, and Physiology
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence including BIOS 20187 or BIOS 20235, and BIOS 20188 and BIOS 20189
BIOS 25258. Immunopathology. 100 Units.
Five examples of diseases are selected each year among the following categories: autoimmune diseases, inflammatory bowel diseases, infection immunity, immunodeficiencies and gene therapy, and transplantation and tumor immunology. Each disease is studied in depth with general lectures that include, where applicable, histological analysis of diseased tissue samples and discussions of primary research papers on experimental disease models. Special emphasis is placed on understanding immunopathology within the framework of general immunological concepts and on experimental approaches to the study of immunopathological models.
Prerequisite(s): BIOS 25256 with a grade of B or higher.
Equivalent Course(s): IMMU 30010, PATH 30010
BIOS 25260. Host Pathogen Interactions. 100 Units.
This course explores the basic principles of host defense against pathogens, including evolutionary aspects of innate and adaptive immunity and immune evasion strategies. Specific examples of viral and bacterial interactions with their hosts are studied in depth. A review of immunological mechanisms involved in specific cases is incorporated in the course.
Prerequisite(s): BIOS 25206 and BIOS 25256
Equivalent Course(s): MICR 31200, IMMU 31200
BIOS 25266. Molecular Immunology. 100 Units.
This discussion-oriented course examines the molecular principles of immune recognition. We explore the roles of protein modification, protein-protein and protein-DNA interactions in the discrimination between self and non-self, and study the molecular fundamentals of cell stimulation and signaling. Primary literature focused on molecular research of the immune system is integrated with lectures on commonly used biochemical, structural and immunological techniques used in the research papers examined.
Prerequisite(s): BIOS 20200 or 25256, or consent of instructor. Offered during odd years.
Equivalent Course(s): IMMU 30266
BIOS 25268. Barrier Immunity. 100 Units.
Nowhere is the body’s immune system so critical in saving an organism from death as at barrier sites, where we are directly exposed to the external environment. However, inflammatory responses to exclude pathogens and toxins need to be balanced with tolerance to benign agents like our microbiome or food, and a homeostatic role of the immune system in tissue repair. Failure to make the right call on defensive versus immunosuppressive reactions leads to severe pathologies such as chronic inflammation, allergies, autoimmunity and cancer. These challenges are met by a plethora of innate and adaptive immune cells, some exclusively found at barriers. Complexity is added by local challenges due to tissue location and function. The fascinating uniqueness of Barrier Immunity is the subject of this course. Using primary literature as a basis, expert faculty will help explore how the immune systems of the intestine, the lung, the skin and the vaginal tract deal with maintaining defense while not jeopardizing tissue function in men and mice. We will then study the immunological diseases at barriers, what makes a site prone to tissue-specific pathologies, and how a barrier dysfunction may lead to systemic immune diseases. A particular focus will be the critical role of the local microbiome in preventing or promoting barrier pathology. The course will also stimulate thought on the evolution of a complex immune system, the origin of diseases and disease tolerance.
Prerequisite(s): BIOS 25256 with a grade of B+ or better, or consent if grade lower than B+.
Equivalent Course(s): IMMU 35000
BIOS 25287. Introduction to Virology. 100 Units.
This class on animal viruses considers the major families of the viral kingdom with an emphasis on the molecular aspects of genome expression and virus-host interactions. Our goal is to provide students with solid appreciation of basic knowledge, as well as instruction on the frontiers of virus research.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence and third- or fourth-year standing
Equivalent Course(s): MICR 34600
BIOS 25308. Heterogeneity in Human Cancer: Etiology and Treatment. 100 Units.
This course addresses the importance of understanding human tumor heterogeneity (organ site by organ site) in terms of predicting whether tumors will progress to malignancy and how tumors will respond to standard treatments or require tailored molecular therapeutics. Alternating lecture and discussion lectures will explore and tease apart the controversies in the field that limit progress in cancer prevention, diagnosis and treatment. At the end of the course, students should have an in-depth understanding of the complexities, challenges and opportunities facing modern cancer researchers and clinical oncologists and be able to discuss novel scientific approaches to solving these issues.
Prerequisite(s): A grade of B or better in BIOS 25108
BIOS 25326. Tumor Microenvironment and Metastasis. 100 Units.
The tumor microenvironment regulates disease progression and chemoresistance in most cancers. This course addresses the functional contribution of the different cellular and non-cellular constituents of the tumor that surround the malignant cancer cells in cancer progression and metastasis. We will thoroughly discuss the function of stroma, inflammation, tumor senescence, immunity and the interactome in cancer progression and metastasis. Moreover, we will evaluate the translational impact of targeting the tumor microenvironment. Laboratory studies will introduce key techniques and organotypic model systems to elucidate these functions. At the end of the course, students should be able to understand the biology behind cancer metastasis and to evaluate manuscripts reporting novel findings in cancer biology. Prerequisite(s): BIOS 25108 and BIOS 25308
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence.
Note(s): Three optional weekend, one-day workshops will be offered during the quarter. This course qualifies in the Cancer Specialization.
BIOS 25327. Health Disparities in Breast Cancer. 100 Units.
Across the globe, breast cancer is the most common women’s cancer. In the last two decades, there have been significant advances in breast cancer detection and treatment that have resulted in improved survival rates. Yet, not all populations have benefited equally from these improvements, and there continues to be a disproportionate burden of breast cancer felt by different populations. In the U.S., for example, white women have the highest incidence of breast cancer but African-American women have the highest breast cancer mortality overall. The socioeconomic, environmental, biological, and cultural factors that collectively contribute to these disparities are being identified with a growing emphasis on health disparities research efforts. In this 10-week discussion-based course students will meet twice weekly and cover major aspects of breast cancer disparities.
Prerequisite(s): BIOS 25108
Equivalent Course(s): CCTS 20400, HLTH 20400, CCTS 40400, GNSE 30408, GNSE 20408
BIOS 25328. Cancer Genetics and Genomics. 100 Units.
Unprecedented technological progress over the last decade, especially high throughput sequencing technologies, has transformed the basic and translational research of cancer as well as other diseases. In this course, we will introduce the current state of the field, discuss how germline and somatic factors drive cancer initiation and progression, and demonstrate how to use omics data to advance our understanding of cancer. We will review recent literature in cancer genetics and genomics, learn about the standing questions in the field, and practice the analytical techniques to address these questions. Computational exercises will be an integral part of the course and provide you with a hand-on experience of state-of-the-art techniques.
Prerequisite(s): BIOS 20187, BIOS 20152 or equivalent
BIOS 26120. An Introduction to Bioinformatics and Proteomics. 100 Units.
Modern biology generates massive amounts of data; this course is devoted to biological information and the models and techniques used to make sense of it. Students learn about biological databases, algorithms for sequence alignment, phylogenetic tree building, and systems biology. They will also learn about the basics of large-scale study of proteins, particularly their structures and functions. Students will be introduced to basics of high performance computation (HPC) and its application to the field of bioinformatics. They will learn how to use our in-house Super Computer to process and analyze next generation sequencing data. Using state of the art tools, students will align and genotype a group of genes in order to identify disease-relevant variants. The course will be taught as a hands on computer approach (a computation background would be helpful, but not needed).
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence or BIOS 20172 or consent of Instructor. No computation background required.
BIOS 26121. Introduction to Transcriptomics. 100 Units.
Transcriptomics is the study of the transcriptome -the complete set of RNA or transcripts that are produced by the genome, using high-throughput methods. In this course, students will learn about modern techniques used to capture and analyze mRNA and the connections of transcriptomics to epi-genomics (study of the epi-genome) and proteomics (study of proteins). The course will be divided into three parts: 1) Introduction of technologies that generate transcriptomics data, 2) Statistical analysis of the data, and 3) Case studies and applications. A range of topics relevant to the current practices in the field will be discussed, including introduction to microarrays, Next-Generation Sequencing (NGS), bulk and single-cell RNA processing, machine learning techniques used in data analyses, data pre-processing, differential expression analysis, and correcting batch effects and other experimental artifacts. Students will obtain hands-on experience in downloading public-domain data and performing analyses using different packages written in R and Python. After taking the class, students will have a working knowledge of the field and acquire experience in RNA-seq data analyses that are currently used in research labs. We will also organize visits to research laboratories and sequencing facility for the students to observe experimental workflows used in cutting-edge research.
Prerequisite(s): BIOS 20151 Intro to Quantitative Modeling or BIOS 20152 Intro to Quantitative Modeling (Adv.)
BIOS 26210-26211. Mathematical Methods for Biological Sciences I-II.
The following two courses are intended to be taken as a sequence.
BIOS 26210. Mathematical Methods for Biological Sciences I. 100 Units.
This course builds on the introduction to modeling course biology students take in the first year (BIOS 20151 or 152). It begins with a review of one-variable ordinary differential equations as models for biological processes changing with time, and proceeds to develop basic dynamical systems theory. Analytic skills include stability analysis, phase portraits, limit cycles, and bifurcations. Linear algebra concepts are introduced and developed, and Fourier methods are applied to data analysis. The methods are applied to diverse areas of biology, such as ecology, neuroscience, regulatory networks, and molecular structure.The students learn to implement the models using Python in the Jupyter notebook platform.
Prerequisite(s): BIOS 20151 or BIOS 20152 or equivalent quantitative experience by consent of instructor, and three courses of a Biological Sciences Fundamentals Sequence or consent of the instructor.
Equivalent Course(s): CPNS 31000, PSYC 36210
BIOS 26211. Mathematical Methods for Biological Sciences II. 100 Units.
This course is a continuation of BIOS 26210. The topics start with optimization problems, such as nonlinear least squares fitting, principal component analysis and sequence alignment. Stochastic models are introduced, such as Markov chains, birth-death processes, and diffusion processes, with applications including hidden Markov models, tumor population modeling, and networks of chemical reactions. In computer labs, students learn optimization methods and stochastic algorithms, e.g., Markov Chain, Monte Carlo, and Gillespie algorithm. Students complete an independent project on a topic of their interest.
Prerequisite(s): BIOS 26210 or equivalent.
Equivalent Course(s): PSYC 36211, CPNS 31100
BIOS 26318. Fundamentals of Biological Data Analysis. 100 Units.
This course is intended for students who have original data from a research project and are looking to produce a thesis or publication. Students will learn to organize, process, visualize, and make inferences from biological data sets using the data processing tools of R. We will review statistics concepts, such as probability distributions, linear and nonlinear fitting, estimation and hypothesis testing, and introduce new concepts relevant for the specific research questions identified by the students. The end result will be a written report that can function as a methods and results section of a research publication and contains high-quality graphics.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence, STAT 22000 or higher, and fourth-year standing, or consent of Instructor. Primarily intended for students that have a data set from original research.
BIOS 26403. Quantitative Immunobiology. 100 Units.
The science of immunology was born at the end of the 19th century as a discipline focused on the body’s defenses against infection. The following 120+ years has led to the discovery of a myriad of cellular and molecular players in immunity, placing the immune system alongside the most complex systems such as Earth’s global climate and the human brain. The functions and malfunctions of the immune system have been implicated in virtually all human diseases. It is thought that cracking the complexity of the immune system will help manipulate and engineer it against some of the most vexing diseases of our times such as AIDS and cancer. To tackle this complexity, immunology in the 21st century – similar to much of the biological sciences – is growing closer to mathematics and data sciences, physics, chemistry and engineering. A central challenge is to use the wealth of large datasets generated by modern day measurement tools in biology to create knowledge, and ultimately predictive models of how the immune system works and can be manipulated. The goal of this course is to introduce motivated students to the quantitative approaches and reasoning applied to fundamental questions in immunology.
Prerequisite(s): Completion of the first two quarters of a Biological Sciences Fundamentals Sequence. Knowledge of R is recommended but not required. Courses in immunology and microbiology are an advantage but not required (e.g., BIOS 25256 Immunobiology; BIOS 25206 Fundamentals of Bacterial Physiology).
Equivalent Course(s): IMMU 34800, MENG 23300, MENG 33300
BIOS 26404. Quantitative Genetics for the 21st Century. 100 Units.
This course has three parts. In the first four weeks, we take a deep look at some fundamentals of quantitative genetics, focusing on underlying mathematical theory and causal interpretations of basic quantitative genetic models. These include the breeder’s equation and related descriptions of the response to natural selection, various methods of estimating heritability, GWAS methods accounting for environmental effects, and explicit causal inference methods like Mendelian randomization. In the next three weeks of the course, we discuss the scientific opportunities and pitfalls of applying these fundamental quantitative genetic tools in challenging settings. This section covers phenotypic prediction with polygenic scores, inferences about quantitative trait evolution, and the application of quantitative genetic tools to complex social traits like educational attainment. Finally, in the third section we examine the relationship between race, genetics, and complex traits. In this section we discuss definitions of race and how they are (or are not) related to genetics, as well as ongoing legitimate scientific debates over how racial classifications are used in medicine. We will also critique pseudoscientific arguments about the relationship between race, genetics and complex traits.
Prerequisite(s): R/Python proficiency.
Equivalent Course(s): HGEN 47800
BIOS 27710-27711-27712-27713-27714-27715. MARINE BIOLOGICAL LABORATORY SEMESTER IN ENVIRONMENTAL SCIENCE.
Marine Biological Laboratory Semester in Environmental Science Sequence (SES). Courses BIOS 27710-27715 are the College designations for the Semester in Environmental Science that is taught at the Marine Biological Laboratory (MBL) in Woods Hole, Massachusetts. Registration in BIOS 27710, 27711, and 27712, plus one of BIOS 27713, 27714, or 27715 is required. Admission to the Semester in Environmental Science program is by application, which must be received by the MBL in March of the year preceding the start of the semester. Admissions decisions will be mailed in April. Note that these courses start at the beginning of September, typically four weeks prior to the start of the College’s Autumn Quarter and are completed by the end of Autumn Quarter. More information on the course content and the application process can be found at https://college.uchicago.edu/academics/semester-environmental-science.
BIOS 27710. Ecology – Marine Biological Laboratory. 100 Units.
This course examines the structure and functioning of terrestrial and aquatic ecosystems including the application of basic principles of community and ecosystem ecology. The course also examines contemporary environmental problems such as the impacts of global and local environmental change on community composition and food webs within forest, grassland, marsh and nearshore coastal ecosystems on Cape Cod. This course examines the structure and functioning of terrestrial and aquatic ecosystems including the application of basic principles of community and ecosystem ecology. The course also examines contemporary environmental problems such as the impacts of global and local environmental change on community composition and food webs within forest, grassland, marsh and nearshore coastal ecosystems on Cape Cod.
Prerequisite(s): Consent only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27711 and BIOS 27712 along with one of BIOS 27713, BIOS 27714 or BIOS 27715.
Equivalent Course(s): ENSC 24100
BIOS 27711. Biogeochemical Analysis in Terrestrial and Aquatic Ecosystems Marine Biological Laboratory. 100 Units.
This course examines the interface of biological processes with chemical processes in ecological systems. Course content emphasizes aquatic chemistry and the role of microbes in the cycling of nitrogen, carbon, and other elements. Effects of global changes on chemical cycling are emphasized.
Prerequisite(s): Consent only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27710 and BIOS 27712 along with one of BIOS 27713, BIOS 27714 or BIOS 27715.
Equivalent Course(s): ENSC 23820
BIOS 27712. Independent Undergraduate Research in Environmental Sciences Marine Biological Laboratory. 100 Units.
This course is the culmination of the Semester in Environmental Science at the Marine Biological Laboratory. An independent research project, on a topic in aquatic or terrestrial ecosystem ecology, is required. Students will participate in a seminar for scientific communication as well as submit a final paper on their project.
Prerequisite(s): Consent only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27710 and BIOS 27711 along with one of BIOS 27713, BIOS 27714 or BIOS 27715.
Equivalent Course(s): ENSC 29800
BIOS 27713. Quantitative Environmental Analyses Marine Biological Laboratory. 100 Units.
This course emphasizes the application of quantitative methods to answering ecological questions. Students apply mathematical modeling approaches to simulating biological and chemical phenomena in terrestrial and marine ecosystems.
Prerequisite(s): Consent Only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27710, BIOS 27711 and BIOS 27712.
Equivalent Course(s): ENSC 28100
BIOS 27714. Methods in Microbial Ecology – Marine Biological Laboratory. 100 Units.
This course explores the biology of microbes found in the environment, including relationships with the physical, chemical, and biotic elements of their environment. Emphasis is placed on understanding the science underlying the various methodologies used in the study of these organisms and systems. In the laboratory, students will work with the latest techniques to measure microbial biomass, activity, extracellular enzymes, and biogeochemical processes. Students are also introduced to molecular methods for assessing microbial genomic diversity.
Prerequisite(s): Consent only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27710, BIOS 27711 and BIOS 27712.
Equivalent Course(s): ENSC 24200
BIOS 27715. Roles of Animals in Ecosystems Marine Biological Laboratory. 100 Units.
This course addresses the question, How do animals, including man, affect the structure and function of ecosystems. The course takes an interdisciplinary approach focused on the interactions of animal diversity, migration patterns, population dynamics, and behavior with biogeochemical cycles, productivity, and transport of materials across ecosystems. This course is an elective option within the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA.
Prerequisite(s): Consent only. Admission by application to the Semester in Environmental Science program at the Marine Biological Laboratory in Woods Hole, MA; concurrent registration in BIOS 27710, BIOS 27711, and BIOS 27712.
Equivalent Course(s): ENSC 24300
BIOS 27720-27723-27725. SEPTEMBER COURSES AT MARINE BIOLOGICAL LABORATORY, WOODS HOLE.
The September courses combine lecture with hands-on learning and development of independent research ideas and projects. All are taught by University of Chicago or MBL faculty, and take advantage of the unique research strengths and the natural environmental resources found at MBL. These are intensive, three-week-long courses that meet for up to eight hours per day for 5–6 days per week, combining morning lectures with afternoon labs and fieldwork. Each student can only enroll in one course at a time. The September courses at MBL have no pre-requisites, and can count either to fulfill the general education requirement in Biology OR as an upper-level elective. Also offered in this program is HIPS 18507 Science, Culture, and Society III: From Natural History to Biomedicine. More information, including application details and program fees, can be found at https://college.uchicago.edu/academics/mbl-september-courses. The MBL September courses end before classes commence in Chicago.
BIOS 27720. Microbiomes Across Environments. 100 Units.
Microbiomes Across Environments provides a comprehensive introduction to microbiome research, tools and approaches for investigation, and a lexicon for biological understanding of the role of microbial communities in environmental and host environments. Microbiome science is an emerging field that bridges disciplines, merging microbiology with genomics, ecosystem science, computation, biogeochemistry, modeling, medicine and many others, including architecture, social science, chemistry and even economics. In this course we will uncover the vast biochemical and metabolic diversity of the microbial world by examining life in coastal and marine systems, (including) host-associated contexts. Students will develop or strengthen biological field/lab techniques, analyze and compare data prepared from student-collected samples, and will integrate fundamental knowledge, modeling, and theory as it pertains to microbiome research.
Note(s): This course will be given at Marine Biological Laboratory, Woods Hole, Massachusetts. E.GP.
BIOS 27723. Biodiversity and Genomics: Exploring the Marine Animal Diversity of Woods Hole Using Molecular Tools. 100 Units.
In this course, student will have the opportunity to explore the large diversity of marine animal species in Woods Hole, Massachusetts and its surroundings. We will combine fieldwork with genomic and bioinformatic approaches to study different aspects of the evolution, ecology, taxonomy, physiology, and biogeography of marine animals in this unique location. Student will integrate knowledge and analytical tools from different biological disciplines to develop short research projects. During the three weeks of the course, student will have access to the Marine Biological Laboratory’s collection of living marine animals, participate in ongoing research projects at MBL, and contribute data that will advance our understanding of marine biodiversity.
Note(s): This course will be given at Marine Biological Laboratories, Woods Hole, Massachusetts. E.
BIOS 27725. Biogeography and Distribution of Species. 100 Units.
Students will explore various aspects of the biota of the region surrounding the Marine Biology Laboratory, Woods Hole, MA. The focus of the course will be to examine various patterns in the distribution and abundance of the flora/fauna in the islands and associated mainland habitats over the course of 3 weeks through a combination of in class lectures and laboratory sessions, combined with field studies. Penikese Island will receive special focus for extensive inventory of the biota, to update previous contributions to the flora of the island and begin an inventory of mammals, birds, and invertebrates. Similar surveys will be made of nearby mainland habitats for biogeographic comparisons between island and mainland patterns of abundance.
Note(s): This course will be given at Marine Biological Laboratories, Woods Hole, Massachusetts. E.
BIOS 27724-27750-27751. BIOLOGY SPRING QUARTER COURSES AT MARINE BIOLOGICAL LABORATORY.
These courses are part of an interdisciplinary four-course program given during Spring Quarter at the Marine Biological Laboratory in Woods Hole, Massachusetts. BIOS 20198 Biodiversity (Section 2) will also be offered in this program. The non-BIOS courses in this program are PHYS 12400 Waves, Optics, and Modern Physics at MBL and ARTV 10100 Visual Language: On Images. For more information, see https://college.uchicago.edu/academics/mbl-spring-quarter-biology.
BIOS 27724. Introduction to Imaging for Biological Research. 100 Units.
Many breakthroughs in science have been made possible by revolutionary advances in our ability to visualize biological processes, and recent progress in microscopy has led to important breakthroughs in understanding life at the molecular, cellular, and organismal level. In this course, we will introduce the students to basic techniques in microscopy, starting with an opportunity for students to build their own simple microscopes, and then proceeding all the way to using state-of-the-art confocal, light sheet, and electron microscopes. Students will explore the challenges of sample preparation, of imaging processes in living cells, and in the computational analysis of imaging data. Throughout the course, students will be able to design their own experiments, and undertake a student-designed research project.
Prerequisite(s): Second-year standing or greater (or by consent).
Note(s): Course meets for three weeks, (5-6 days/week, 8 hours per day), at Marine Biological Laboratories, in Woods Hole Massachusetts as part of Spring quarter at MBL. For more information see https://college.uchicago.edu/academics/mbl-spring-quarter-biology
Equivalent Course(s): NSCI 21515
BIOS 27750. Stem Cells and Regeneration: from aquatic research organisms to mammals. 100 Units.
This course will focus on contemporary stem cell biology and regeneration with emphasis on molecular mechanisms and applications. The course will cover the history of stem cell discoveries through the latest advances, including genome-wide profiling, targeted gene editing, and other techniques used in stem cell and regeneration research. A portion of the course will consist of modules where specific stem cell types will be discussed together with relevant diseases they could impact (i.e. stem cells and neurodegeneration). A focus of the course will be around how discoveries in aquatic research organisms have driven the progress in regeneration biology. In this classroom and lab based course, students will have the opportunity to work on an independent research project under the supervision of a Resident Faculty at MBL. The lab portion of the course will introduce and provide hands-on experience on experimental approaches and techniques used in cell biology, development, and regeneration research. There will be a focus on microscopy (brightfield, fluorescence, high-resolution microscopy) and use of open source software to analyze images. There will be an introduction into the use of stains, antibodies, and genetically-encoded fluorescent markers to analyze cellular structures in aquatic organisms that include axolotls, Nematostella, worms, cephalopods and zebrafish. In addition, this course will provide hands-on experience through labs.
Prerequisite(s): Second-year standing or greater (or by consent).
Note(s): Course meets for three weeks. (5-6 days/wek, 8 hours per day) at Marine Biological Laboratories, in Woods Hole Massachusetts as part of the Spring Quarter at MBL. For more information see https://college.uchicago.edu/academics/mbl-spring-quarter-biology
BIOS 27751. Biological Oceanography. 100 Units.
This intensive four-week course addresses fundamental oceanographic processes that maintain and structure marine biodiversity and productivity, including physical oceanographic processes of dispersal and upwelling, environmental selection, biogeography, nutrient dynamics, primary production, and food web dynamics. Students will design an original research project during an initial week-long shore component at Marine Biological Laboratory (MBL) in Woods Hole, MA, and then address their own questions by collecting samples and data aboard Sea Education Association (SEA)’s oceanographic research sailing vessel, the SSV Corwith Cramer, on a 10-day offshore voyage. At sea students will deploy oceanographic instruments, interpret various data streams, and work as research teams and watch members as they navigate and sail the vessel. During a final week-long shore component at MBL, students will analyze and interpret the data they collected and present their results in written and oral reports.
Prerequisite(s): Second-year standing or greater (or by consent).
Note(s): Course meets for three weeks (5-6 days/week, 8 hours per day) at Marine Biological Laboratories, in Woods Hole Massachusetts as part of the Spring Quarter at MBL. For more information see https://college.uchicago.edu/academics/mbl-spring-quarter-biology E.
Equivalent Course(s): ENSC 25000
BIOS 27752. Dynamic Camouflage: Behavior, Visual Perception and Neural Skin Patterning in Cephalopods. 100 Units.
This course takes an integrative approach to understanding a neurally controlled system of dynamic defense against visual predators. Camouflage is a widespread form of defense throughout the animal kingdom in every known habitat – land or sea. In the oceans, cephalopods (cuttlefish, octopus, squid) have evolved a sophisticated sensorimotor system called Rapid Adaptive Coloration, which can instantaneously change their total body appearance within a fraction of a second to range from highly camouflaged to startlingly conspicuous for a wide range of behaviors. The forms and functions of this dynamic system will be teased apart in integrative fashion in a top-down approach from ecology to organismal biology to organs, tissues and cells. The course touches on neural anatomy, sensation, visual perception (including psychophysics) and animal behavior. There are also applied biology aspects of this system that will be presented as well.
Prerequisite(s): Acceptance into the MBL Neuroscience Spring Quarter Program
Equivalent Course(s): NSCI 21530
BIOS 27810. Epidemiology and Population Health: Global Health Sciences I. 100 Units.
Epidemiology is the basic science of public health. It is the study of how diseases are distributed across populations and how one designs population-based studies to learn about disease causes, with the object of identifying preventive strategies. Epidemiology is a quantitative field and draws on biostatistical methods. Historically, epidemiology’s roots were in the investigation of infectious disease outbreaks and epidemics. Since the mid-twentieth century, the scope of epidemiologic investigations has expanded to a fuller range of non-infectious diseases and health problems. This course will introduce classic studies, study designs, and analytic methods, and will include articles that approach epidemiology from the global context.
Prerequisite(s): Completion of the three quarters of a Biological Sciences Fundamentals Sequence and completion of the quantitative requirements for the Biological Sciences Major. STAT 22000 or other introductory statistics highly desirable.
BIOS 27813. Cancer Concepts: Causes and Consequences. 100 Units.
The goal of this course is to build concepts and develop understanding of how cancers arise by addressing the genetic basis of cancer, in addition to the role of environmental stresses in tumorigenesis. Specifically, we will examine how genetic changes, infection, diet and stress all affect tumor cell stemness, tumor evolution & heterogeneity, tumor metabolism and drug resistance. We will focus in on the role of the human papillomavirus (HPV) in humans cancers as a means to dissect basic molecular mechanisms of cancer but also to explore how our understanding of HPV as an etiological factor in cancer has changed in recent years, how efforts to vaccinate against HPV serves as a paradigm (or not) for other cancers and the controversies surrounding all of the above. Finally, we will examine in more detail how obesity, altered metabolism and stress affect tumor metabolism, co-evolution of the tumor with its microenvironment, the gut microbiome and anti-tumor immunity, and how diet may be exploited to prevent cancers (or not). We will conclude with a discussion of possible future directions to better prevent and treat human cancers.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence including BIOS 20187 or BIOS 20235, or consent of Instructor.
Note(s): GP.
BIOS 27815. Global Health Sciences II: Infectious Diseases. 100 Units.
This course will examine infectious diseases with global health impact, analyzing their historic and projected impact, biological foundations, and preventive control. Course topics include gastrointestinal infections (e.g., cholera, bacillary dysentery, typhoid fever, rotavirus infections), sexually transmitted diseases (HIV), infections transmitted via aerosol droplets (tuberculosis, meningitis), and vector borne diseases (e.g., malaria, typhus, dengue fever, plague). Special emphasis will be placed on emerging infectious diseases (Ebola, Coronavirus) and the role of vaccines and other strategies for infectious disease elimination (smallpox, polio, malaria, river blindness). The course encompasses lectures and student presentations. Students have the option to write a paper in lieu of a final exam
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals Sequence or consent of instructor.
Note(s): This course is offered in Paris. For more information see: https://study-abroad.uchicago.edu/paris-global-health
BIOS 28101-28102. Science Communication.
The ability to communicate the importance, excitement, and rigor of science to the general public is a critical skill for scientists. By translating scientific research scientists can, among other things, shape public policy, create an informed voting population, and encourage funding for research. In these three courses, open to third- and fourth-year undergraduates, students will critically analyze different communication strategies and practice communicating science through assignments and interactive skill-building sessions. In BIOS 28101, students will translate primary research into written story form and publish their work on a digital platform. In BIOS 28102, students will communicate primary research by creating a TED Talk–style video. Students can take a single course or both courses. Either BIOS 28101 or BIOS 28102 (but not both) can be applied toward a major in Biological Sciences.
BIOS 28101. Science Communication: Writing a Digital Science Story. 100 Units.
Students will gain skills in written and digital communication, focusing on translating primary scientific research to a general audience. Students will learn what makes an engaging written article and how to write for the public without sacrificing scientific accuracy or complexity. We will explore platforms such as newspapers, magazines, blogs and social media. Students will work with faculty mentors to complete two written pieces that communicate research findings and their significance to a general audience. Student articles may be disseminated on the websites of the Illinois Science Council, Marine Biology Laboratory, the Institute for Translational Medicine, or the National Institutes of Health. Students will walk away with a polished, published work.
Prerequisite(s): Three quarters of physical or biological (including neuroscience) sciences. Third- or fourth-year standing. This course does not satisfy the general education requirement in the physical sciences.
Equivalent Course(s): PHSC 28101
BIOS 28102. Science Communication: Producing a Science Video Story. 100 Units.
Students will gain skills in oral communication and will apply these skills to produce a TED Talk-style video communicating primary research in a scientific area of the student’s choice. The goal is effective, engaging communication of science to a general audience without sacrificing scientific accuracy or complexity. Students will work with faculty to write scripts and design visual and audio elements. The talks will be filmed and edited in collaboration with UChicago Creative, who will assist with visual aids and animation. Students will leave the course with a professionally produced video that they can use to advance their career and promote their topic. While this course naturally follows BIOS 28101, that course is not a pre-requisite.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence. Third- or fourth-year standing. This course does not satisfy the general education requirement in the physical sciences.
Equivalent Course(s): PHSC 28102
BIOS 28407. Genomics and Systems Biology. 100 Units.
This lecture course explores technologies for high-throughput collection of genomic-scale data, including sequencing, genotyping, gene expression profiling, and assays of copy number variation, protein expression and protein-protein interaction. In addition, the course will cover study design and statistic analysis of large data sets, as well as how data from different sources can be used to understand regulatory networks, i.e., systems. Statistical tools that will be introduced include linear models, likelihood-based inference, supervised and unsupervised learning techniques, methods for assessing quality of data, hidden Markov models, and controlling for false discovery rates in large data sets. Readings will be drawn from the primary literature. Evaluation will be based primarily on problem sets.
Prerequisite(s): Three quarters of a Biological Sciences Fundamentals sequence including BIOS 20187 or BIOS 20235 and STAT 23400 or BIOS 26210 and BIOS 26211
Equivalent Course(s): BPHS 47300, HGEN 47300, IMMU 47300, CABI 47300
BIOS 28700. Biodiagnostics and Biosensors. 100 Units.
This course focuses on the biological and chemical interactions that are important for the diagnosis of diseases and the design of new assays. The principles and mechanisms of molecular diagnostics and biosensors, as well as their applications in disease diagnosis, will be discussed. Bioanalytical methods including electrochemical, optical, chemical separation, and spectroscopic will be described. Surface functionalization and biomolecular interactions will be presented for the development of protein and DNA based biosensor applications. The goals for the course are to introduce the fundamental mechanisms of bioanalytical methods/tools, examples of specific methods for diagnostic purposes, and analytical methods necessary for developing new precision medicine tools.
Prerequisite(s): Completion of the first two quarters of a Biological Sciences Fundamentals Sequence
Equivalent Course(s): MENG 33140, MENG 23140
BIOS 28900. Undergraduate Bachelor of Science Research. 100 Units.
Students who are completing the Biological Sciences major with a BS degree must register for this course in the autumn of the fourth year (see guidelines at https://college.uchicago.edu/academics/bs-guidelines-and-timeline) unless they are enrolled in the research course for the BSCD Honors program (BIOS 00296. Undergraduate Honors Research.) We will hold four mandatory evening Zoom sessions in Autumn Quarter and four mandatory evening Zoom sessions in Winter Quarter. Students will receive a quality grade for the course upon submission of an approved BS thesis in Spring Quarter. BIOS 28900 can be counted as one upper-level elective toward the Biological Sciences major and may be counted among the three upper-level courses required for the BS. Participants will give short presentations on their thesis research during mandatory evening sessions. Students will receive a quality grade in this course based on their thesis proposal, their research presentation, and a progress report from their thesis advisers.
Prerequisite(s): Students must be Biological Sciences majors pursuing the BS degree. This course is not open to students in the BSCD Honors program who are enrolled in BIOS 00296. (Undergraduate Honors Research).
Big Problems Courses
The following two courses are part of the Big Problems Curriculum franke.uchicago.edu/big-problems-courses.
BIOS 02280. Drinking Alcohol: Social Problem or Normal Cultural Practice? 100 Units.
Alcohol is the most widely used psychoactive agent in the world, and, as archaeologists have recently demonstrated, it has a very long history dating back at least 9,000 years. This course will explore the issue of alcohol and drinking from a trans-disciplinary perspective. It will be co-taught by an anthropologist/archaeologist with experience in alcohol research and a neurobiologist who has experience with addiction research. Students will be confronted with literature on alcohol research from anthropology, sociology, history, biology, medicine, psychology, and public health and asked to think through the conflicts and contradictions. Selected case studies will be used to focus the discussion of broader theoretical concepts and competing perspectives introduced in the first part of the course. Topics for lectures and discussion include: fermentation and the chemistry and pharmacology of alcohol; the early history of alcohol; histories of drinking in ancient, medieval, and modern times; alcohol and the political economy; alcohol as a cultural artifact; styles of drinking and intoxication; how is alcohol metabolized; addiction; how does alcohol affect sensations; social problems; alcohol and religion; alcohol and health benefits; comparative case studies of drinking.
Prerequisite(s): Third or fourth-year standing.
Note(s): This course does not meet requirements for the biological sciences major.
Equivalent Course(s): ANTH 25310, HLTH 25310, BPRO 22800
BIOS 02490. Biology and Sociology of AIDS. 100 Units.
This interdisciplinary course deals with current issues of the AIDS epidemic.
Prerequisite(s): Third- or fourth-year standing
Note(s): This course does not meet requirements for the biological sciences major.
Equivalent Course(s): SSAD 65100, BPRO 24900
Specialized Courses
These courses may not be used as upper-level electives in the Biological Sciences major, nor can they be used to satisfy the general education requirement in the biological sciences, unless otherwise indicated in the course description or approved through petition to the BSCD Senior Advisors. They may count as upper-level electives in certain Interdisciplinary Biology Tracks.
BIOS 29326. Introduction to Medical Physics and Medical Imaging. 100 Units.
This course covers the interaction of radiation with matter and the exploitation of such interactions for medical imaging and cancer treatment. Topics in medical imaging include X-ray imaging and radionuclide imaging, as well as advanced technologies that provide three-dimensional images, including X-ray computed tomography (CT), single photon emission computed tomography (SPECT), positron emission tomography (PET), magnetic resonance imaging (MRI), and ultrasonic imaging.
Prerequisite(s): PHYS 23500. This course does not meet requirements for the Biological Sciences major. Students majoring in physics may use this course either as an elective or as one of the topics courses to meet the general education requirement in the Biological Sciences.
Equivalent Course(s): MPHY 32600, MPHY 29326
BIOS 29814. Global Health Sciences III: Biological and Social Determinants of Health. 100 Units.
Global health is an interdisciplinary and empirical field, requiring holistic and innovative approaches to navigate an ever-changing environment in the pursuit of health equity. This course will emphasize specific health challenges facing vulnerable populations in low resource settings including in the United States and the large scale social, political, and economic forces that contribute to them through topical events and case studies. Students will study the importance of science and technology, key institutions and stakeholders; environmental impacts on health; ethical considerations in research and interventions; maternal and child health; health and human rights; international legal frameworks and global health diplomacy. Students will gain skills in technical writing as they construct position statements and policy briefs on global health issues of interest. Career opportunities in global health will be explored throughout the course.
Prerequisite(s): BIOS 27810 or consent of instructor.
Note(s): This course counts towards the Biological Sciences major ONLY for students in the Global & Public Health Track.
Equivalent Course(s): CCTS 22003, CCTS 42003
Independent Study and Research Courses
BIOS 00199-00299
Students pursuing independent research in the lab of a Biological Sciences Division faculty member may obtain credit by enrolling in the following courses. These courses cannot be counted toward the major in Biological Sciences.
BIOS 00199. Undergraduate Research. 100 Units.
This course may be elected for up to three quarters. Before Friday of fifth week of the quarter in which they register, students must submit a one-page summary of the research that they are planning to their research sponsor and to the director of undergraduate research and honors. A detailed two to three page summary on the completed work must be submitted to the research sponsor and the Master of BSCD before Friday of examination week.
Prerequisite(s): Consent of research sponsor and the Master of BSCD.
Note(s): Students are required to submit the College Reading and Research Course Form. This course is graded P/F. This course does not meet requirements for the biological sciences major.
BIOS 00206. Readings: Biology. 100 Units.
Students may register for only one BIOS 00206 tutorial per quarter. Enrollment must be completed by the end of the second week of the quarter. This tutorial offers individually designed readings.
Note(s): Students are required to submit the College Reading and Research Course Form. This course is graded P/F. This course does not meet requirements for the biological sciences major.
BIOS 00296. Undergraduate Honors Research. 100 Units.
This course is required for students accepted into the BSCD Research Honors program. Students must register for this course both Autumn and Winter Quarters of their fourth year. This course can be counted toward the Biological Sciences major and may be counted among the three upper-level courses required for the BS. See also bscd.uchicago.edu/page/honors-biology. Quality grade. Prerequisite(s): Consent Only. Acceptance in BSCD Honors Research Program.
BIOS 00299. Advanced Research: Biological Sciences. 100 Units.
Before Friday of fifth week of the quarter in which they register, students must submit a one-page summary of the research that they are planning to their research sponsor and to the director of undergraduate research and honors. A detailed two to three page summary on the completed work must be submitted to the research sponsor and the Master of BSCD before Friday of examination week. This course does may be counted as a general elective but does not meet requirements for the Biological Sciences major. In the first quarter of registration, students must submit College Reading and Research form to their research sponsor and the director of undergraduate research and honors.Prerequisite(s): Fourth-year standing and consent of research sponsor and Master of BSCD.
Chicago Pre Med Majors – Biological Sciences
Program of Study
The Department of Chemistry, in conjunction with the Department of Biochemistry and Molecular Biology (BCMB) in the Division of the Biological Sciences, offers a BS degree in Biological Chemistry. The program is designed to prepare students to enter a variety of interdisciplinary fields in biochemical and biophysical sciences. Undergraduate research is strongly encouraged. By combining resources of both departments, students in this program are given the opportunity to study chemistry and physics of macromolecules, mechanisms of actions of enzymes and hormones, molecular and cellular biology, biotechnology, and other related fields.
Summary of Requirements
GENERAL EDUCATION | ||
CHEM 11100-11200 | Comprehensive General Chemistry I-II †*‡ | 200 |
One of the following sequences: | 200 | |
MATH 15100-15200 | Calculus I-II | |
MATH 16100-16200 | Honors Calculus I-II † | |
MATH 13100-13200 | Elementary Functions and Calculus I-II (MATH 15000s or higher is strongly recommended) | |
BIOS 20186 | Fundamentals of Cell and Molecular Biology ** | 100 |
BIOS 20187 | Fundamentals of Genetics (or AP credit, if an AP 5 Fundamentals Sequence is completed) +** | 100 |
Total Units | 600 |
MAJOR | ||
One of the following: †* | 100 | |
CHEM 11300 | Comprehensive General Chemistry III | |
CHEM 12300 | Honors General Chemistry III | |
MATH 18300-18400-18500 | Mathematical Methods in the Physical Sciences I-II-III § | 300 |
CHEM 20100 | Inorganic Chemistry I | 100 |
PHYS 12100-12200-12300 | General Physics I-II-III (or higher) | 300 |
One of the following sequences: | 300 | |
CHEM 22000-22100-22200 | Organic Chemistry I-II-III | |
CHEM 23000-23100-23200 | Honors Organic Chemistry I-II-III | |
CHEM 26100 & 26200 |
Introductory Quantum Mechanics and Thermodynamics |
200 |
CHEM 26700 | Experimental Physical Chemistry | 100 |
One of the following: | 100 | |
CHEM 20200 | Inorganic Chemistry II | |
CHEM 20300 | Chemistry of Materials | |
CHEM 23300 | Introduction to Chemical Biology | |
CHEM 26300 | Chemical Kinetics and Dynamics | |
BIOS 20200 | Introduction to Biochemistry | 100 |
BIOS 21317 | Topics in Biological Chemistry | 100 |
One of the following: | 100 | |
BIOS 21229 | Genome Informatics: How Cells Reorganize Genomes | |
BIOS 21237 | Developmental Mechanisms | |
BIOS 21238 | Cell Biology II | |
BIOS 21249 | Organization, Expression, and Transmission of Genome Information | |
BIOS 21306 | Human Genetics and Evolution | |
BIOS 21328 | Biophysics of Biomolecules | |
BIOS 21349 | Protein Structure and Functions in Medicine | |
BIOS 21358 | Simulation, Modeling, and Computation in Biophysics | |
BIOS 21360 | Advanced Molecular Biology | |
BIOS 21510 | Chromatin & Epigenetics | |
One approved 30000-level Biochemistry or Chemistry course ± | 100 | |
Total Units | 1900 |
† |
Credit may be granted by examination. |
* |
See following sections on Chemistry Placement Test, Advanced Placement Credit, and Optional Chemistry Advanced Placement Exam. Note that no credit is given for IB chemistry. |
‡ |
CHEM 10100–CHEM 10200 Introductory General Chemistry I-II and CHEM 12100–CHEM 12200 Honors General Chemistry I-II also satisfy this requirement. Enrollment into a particular sequence is based on students’ Chemistry Placement Test score. |
** |
Chemistry and Biological Chemistry majors can take these courses without the Biological Sciences prerequisites (BIOS 20153-20151), unless they pursue a double major in the Biological Sciences. They are expected to show competency in mathematical modeling of biological phenomena covered in BIOS 20151. |
+ |
Students with a score of 5 on the AP Biology exam receive one credit. They are eligible to register for a three-quarter AP 5 Fundamentals Sequence. Upon completion of the sequence, students receive an additional AP credit, for a total of two, to meet the general education requirement. Students majoring in Biological Chemistry will count the AP 5 Fundamentals Sequence as three electives. |
§ |
The sequence MATH 18300-18400-18500 Mathematical Methods in the Physical Sciences I-II-III is the recommended course of study for Chemistry majors. Students who switch into the major later in their studies may also substitute MATH 15300/16300, MATH 19620, MATH 20250, or STAT 24300 for MATH 18300. Students who wish to double major or minor in Mathematics may consider alternative substitutions. The three-quarter sequence MATH 20300-20400-20500 Analysis in Rn I-II-III or the honors variation of this sequence (MATH 20700-20800-20900 Honors Analysis in Rn I-II-III) may be substituted for MATH 18400–MATH 18500 Mathematical Methods in the Physical Sciences II-III; please note that MATH 20250 Abstract Linear Algebra or STAT 24300 Numerical Linear Algebra is a prerequisite for MATH 20400. MATH 18600 is recommended for Chemistry majors who plan to pursue advanced study in physical chemistry. |
± |
These courses must be chosen in consultation with the Director of Undergraduate Studies; their approval must be conveyed to the student’s College adviser for proper documentation. These are graduate-level courses. In Chemistry, these include any course with a 30000-level designation. In Biology, the course must be at the graduate level, or have sufficient differentiation between undergraduate- and graduate-level work to qualify as a graduate-level course for courses which have both undergraduate and graduate students enrolled. In general, this course must have a significant molecular or chemical component. |
Chemistry Placement Test
The Chemistry Placement Test, taken online in the summer via Canvas, is required for all first-year and transfer students intending to enroll in General, Honors, or Introductory Chemistry. Without a Chemistry Placement Test score, students will not be able to pre-register for Chemistry courses. After the Chemistry Placement Test is scored, the results will be visible in the Student Portal. The Mathematics Placement Test is also required for students’ Chemistry placement. For more information on placement examinations, please consult the New Student Advising website.
Advanced Placement Credit
Students who earn a score of 5 on the Advanced Placement (AP) Examination in Chemistry are still required to take the Chemistry Placement Test. Students with an AP score of 5 in Chemistry are given credit for CHEM 11100 Comprehensive General Chemistry I. Students who receive this credit through AP have two options:
- Take CHEM 11200 Comprehensive General Chemistry II or CHEM 12200 Honors General Chemistry II in the Winter Quarter. (Students considering CHEM 12200 are strongly encouraged to self-review material prior to starting the course.)
- Forfeit their AP credit and take CHEM 11100 Comprehensive General Chemistry I or CHEM 12100 Honors General Chemistry I in the Autumn Quarter.
Note that no credit is given for IB Chemistry, but students may pursue the Chemistry Advanced Placement option described below.
Optional Chemistry Advanced Placement Exam
First-year and transfer students with a strong Chemistry background (i.e., those who place into CHEM 12100 Honors General Chemistry I on the Chemistry Placement Test) will automatically be registered to take the Chemistry Advanced Placement Exam (CAPE). This exam is optional. The CAPE is offered online via Canvas only at the time of matriculation. All students will receive an email later in the summer outlining how to sit for the CAPE. Performing well on this exam and consulting with the Chemistry Director of Undergraduate Studies (DUS), may qualify a student to place out of General Chemistry and into more advanced courses such as CHEM 22000 Organic Chemistry I, CHEM 20100 Inorganic Chemistry I, or CHEM 26100 Introductory Quantum Mechanics.
If a student is approved to pursue this option, they may substitute quality grades earned in any three of the following courses for their required General Chemistry course credit:
- CHEM 23300 Introduction to Chemical Biology
- CHEM 26100-26200-26300 Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics
- CHEM 20100-20200 Inorganic Chemistry I-II
- CHEM 20300 Chemistry of Materials
- CHEM 26700 Experimental Physical Chemistry
- CHEM 22700 Advanced Organic/Inorganic Laboratory
- CHEM 26800 Quantum Molecular and Materials Modeling
This advanced placement track may fast-track well-prepared students who wish to advance their studies into the various sub-fields of Chemistry, students who wish to double major or minor in Chemistry, or non-Chemistry majors who wish to enroll in advanced courses that require General Chemistry as a prerequisite.
Joint Degree Program
Students who achieve advanced academic standing through their performance on placement examinations or accreditation examinations may consider the formulation of a four-year degree program that leads to the concurrent award of the Joint BS in Biological Chemistry and MS in Chemistry. For more information, consult Vera Dragisich at vdragisi@uchicago.edu or the Department of Chemistry at chem-dus@lists.uchicago.edu.
Undergraduate Research and Honors
Students majoring in Biological Chemistry are strongly encouraged to participate in research with a faculty member. Research can be either independent or taken for course credit. To participate in research coursework, a student is required to have the consent of a faculty sponsor and the Director of Undergraduate Studies (DUS), and to submit the College Reading/Research Course Form. For more information on research opportunities. the Honors Program in Biological Chemistry, and/or how to fill out the College Reading/Research Course Form, please visit the Department of Chemistry website.
Excellent students who pursue a substantive research project with a faculty member in the Department of Chemistry or the Department of Biochemistry and Molecular Biology should plan to submit an honors thesis based on their work. Honors thesis work constitutes a sustained, and in many cases multi-year, project, with students typically beginning no later than their third year and continuing through the following summer and their fourth year. Students who wish to be considered for honors are expected to complete their arrangements with the Director of Undergraduate Studies (DUS) before the end of their third year and to register for one quarter of CHEM 29900 Advanced Research in Chemistry or one year of CHEM 29600 Research in Chemistry during their third or fourth years.
To be eligible to receive honors, students in the BS degree program in Biological Chemistry must write a creditable honors paper describing their research. The paper must be submitted before the deadline established by the Director of Undergraduate Studies (DUS) and must be approved by the Department of Chemistry and the Department of Biochemistry and Molecular Biology. In addition, an oral presentation of the research is required. The research paper or project used to meet this requirement may not be used to meet the BA paper or project requirement in another major.
To earn a BS degree with honors in Biological Chemistry, students must also have an overall GPA of 3.0 or higher.
Grading
Students majoring in Biological Chemistry must earn (1) a major GPA of 2.0 or higher and (2) a C- or higher in all courses required by the Biological Chemistry major, including those courses counting toward general education requirements in the mathematical, biological, and physical sciences. Nonmajors may take Chemistry courses on a P/F basis; only grades of C- or higher constitute passing work.
Laboratory Safety
In chemistry labs, safety goggles must be worn at all times. Students who require prescriptive lenses may wear prescription glasses under goggles; contact lenses may not be worn. Exceptions for medical reasons must be obtained from the lab director.
Contacts
Undergraduate Primary Contact
Advisor for Chemistry and Biological Chemistry Majors
John Anderson
GCIS 419B
773.702.9025
Email
Secondary Contact
Adviser for the Department of Biochemistry and Molecular Biology
Marvin Makinen
GCIS 323D
773.702.1080
Email
Chicago Pre Med Majors – Chemistry
Program of Study
Chemistry is concerned with the preparation, composition, and structure of matter and with the equilibrium and kinetic laws that govern its transformations. The BA and BS degrees in Chemistry are designed to provide a broad foundation in the three principal branches of the science: inorganic, organic, and physical chemistry. Analytical chemistry, often regarded as an independent branch, is incorporated into the program. Both curricula discuss experimental and theoretical work and emphasize their interdependence. Both degree programs prepare the student for a career in chemistry. However, the BS degree offers a more intensive program of study. The BA degree also offers thorough study in the field of chemistry, but it provides a wide opportunity for elective freedom and for the pursuit of interdisciplinary interests in areas such as biochemistry, biophysics, chemical physics, geochemistry, pre-medicine, and education, as well as the ability to double major with many other departments in a straightforward way.
Program Requirements
The principal distinction between the BA and BS programs is the number of Chemistry courses required.
Program Requirements: BA A minimum of eight courses in Chemistry beyond the general education requirement (which should be taken in the first year) is required for the BA degree.
Program Requirements: BS A minimum of twelve courses in Chemistry beyond the general education requirement (which should be taken in the first year) is typically required for the BS degree.
Please note that while the lower course requirement for the BA degree makes double majoring with many other programs of study feasible, double majoring with a BA and BS both in Chemistry is not allowed, as the BA in Chemistry is contained within the BS degree. Students who wish to double major with a BS in Biological Chemistry and a BA in Chemistry must fulfill the 30000-level Biochemistry course requirements in a Chemistry 30000-level course.
Summary of Requirements: BA in Chemistry
GENERAL EDUCATION | ||
CHEM 11100-11200 | Comprehensive General Chemistry I-II †*‡ | 200 |
One of the following sequences: | 200 | |
MATH 15100-15200 | Calculus I-II | |
MATH 16100-16200 | Honors Calculus I-II † | |
MATH 13100-13200 | Elementary Functions and Calculus I-II | |
Total Units | 400 |
MAJOR | ||
One of the following: †* | 100 | |
CHEM 11300 | Comprehensive General Chemistry III | |
CHEM 12300 | Honors General Chemistry III | |
One of the following: § | 100 | |
MATH 18300 | Mathematical Methods in the Physical Sciences I | |
STAT 24300 | Numerical Linear Algebra | |
MATH 19620 | Linear Algebra | |
MATH 20250 | Abstract Linear Algebra | |
MATH 18400 & 18500 |
Mathematical Methods in the Physical Sciences II and Mathematical Methods in the Physical Sciences III § |
200 |
PHYS 13100-13200-13300 | Mechanics; Electricity and Magnetism; Waves, Optics, and Heat (or higher) | 300 |
CHEM 20100 | Inorganic Chemistry I | 100 |
One of the following sequences: | 300 | |
CHEM 22000-22100-22200 | Organic Chemistry I-II-III | |
CHEM 23000-23100-23200 | Honors Organic Chemistry I-II-III | |
CHEM 26100 & 26200 |
Introductory Quantum Mechanics and Thermodynamics |
200 |
CHEM 26700 | Experimental Physical Chemistry | 100 |
Total Units | 1400 |
Summary of Requirements: BS in Chemistry
GENERAL EDUCATION | ||
CHEM 11100-11200 | Comprehensive General Chemistry I-II †*‡ | 200 |
One of the following sequences: | 200 | |
MATH 15100-15200 | Calculus I-II | |
MATH 16100-16200 | Honors Calculus I-II † | |
MATH 13100-13200 | Elementary Functions and Calculus I-II (MATH 15000s or higher is strongly recommended) | |
Total Units | 400 |
MAJOR | ||
One of the following: †* | 100 | |
CHEM 11300 | Comprehensive General Chemistry III | |
CHEM 12300 | Honors General Chemistry III | |
MATH 18300-18400-18500 | Mathematical Methods in the Physical Sciences I-II-III § | 300 |
CHEM 20100 | Inorganic Chemistry I | 100 |
One of the following: | 100 | |
CHEM 20200 | Inorganic Chemistry II | |
CHEM 20300 | Chemistry of Materials | |
PHYS 13100-13200-13300 | Mechanics; Electricity and Magnetism; Waves, Optics, and Heat (or higher) | 300 |
CHEM 22000-22100-22200 | Organic Chemistry I-II-III | 300 |
CHEM 23300 | Introduction to Chemical Biology | 100 |
CHEM 26100-26200-26300 | Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics | 300 |
CHEM 26700 | Experimental Physical Chemistry | 100 |
One of the following: | 100 | |
CHEM 22700 | Advanced Organic/Inorganic Laboratory | |
CHEM 26800 | Quantum Molecular and Materials Modeling | |
Total Units | 1800 |
Chemistry Placement Test
The Chemistry Placement Test, taken online in the summer via Canvas, is required for all first-year and transfer students intending to enroll in General, Honors, or Introductory Chemistry. The Mathematics Placement Test is also required for students’ Chemistry placement. For more information on placement examinations, please consult the New Student Advising website.
Advanced Placement Credit
Students who earn a score of 5 on the Advanced Placement (AP) Examination in Chemistry are still required to take the Chemistry Placement Test. Students with an AP score of 5 in Chemistry are given credit for CHEM 11100 Comprehensive General Chemistry I. Students who receive this credit through AP have two options:
- Take CHEM 11200 Comprehensive General Chemistry II or CHEM 12200 Honors General Chemistry II in the Winter Quarter. (Students considering CHEM 12200 are strongly encouraged to self-review material prior to starting the course.)
- Forfeit their AP credit and take CHEM 11100 Comprehensive General Chemistry I or CHEM 12100 Honors General Chemistry I in the Autumn Quarter.
Note that no credit is given for IB Chemistry, but students may pursue the Chemistry Advanced Placement option described below.
Optional Chemistry Advanced Placement Exam
First-year and transfer students with a strong Chemistry background (i.e., those who place into CHEM 12100 Honors General Chemistry I on the Chemistry Placement Test) will automatically be registered to take the Chemistry Advanced Placement Exam (CAPE). This exam is optional. The CAPE is offered online via Canvas only at the time of matriculation. All students will receive an email later in the summer outlining how to sit for the CAPE. Performing well on this exam and consulting with the Chemistry Director of Undergraduate Studies (DUS), may qualify a student to place out of General Chemistry and into more advanced courses such as CHEM 22000 Organic Chemistry I, CHEM 20100 Inorganic Chemistry I, or CHEM 26100 Introductory Quantum Mechanics.
If a student is approved to pursue this option, they may substitute quality grades earned in any three of the following courses for their required General Chemistry course credit:
- CHEM 23300 Introduction to Chemical Biology
- CHEM 26100-26200-26300 Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics
- CHEM 20100-20200 Inorganic Chemistry I-II
- CHEM 20300 Chemistry of Materials
- CHEM 26700 Experimental Physical Chemistry
- CHEM 22700 Advanced Organic/Inorganic Laboratory
- CHEM 26800 Quantum Molecular and Materials Modeling
This Advanced Placement track may fast-track well-prepared students who wish to advance their studies into the various sub-fields of Chemistry, students who wish to double major or minor in Chemistry, or non-Chemistry majors who wish to enroll in advanced courses that require General Chemistry as a prerequisite.
Undergraduate Research and Honors
Students majoring in Chemistry are strongly encouraged to participate in research with a faculty member. Research can be either independent or taken for course credit. To participate in research coursework, a student is required to have the consent of a faculty sponsor and the Director of Undergraduate Studies (DUS), and to submit the College Reading/Research Course Form. For more information on research opportunities, the Honors Program in Chemistry, and/or how to fill out the College Reading/Research Course Form, please visit the Department of Chemistry website.
Excellent students who pursue a substantive research project with a faculty member of the Department of Chemistry should plan to submit an honors thesis based on their work. Honors thesis work constitutes a sustained, and in many cases multi-year, project, with students typically beginning no later than their third year and continuing through the following summer and their fourth year. Students who wish to be considered for honors are expected to complete their arrangements with the Director of Undergraduate Studies (DUS) before the end of the third year and to register for one quarter of CHEM 29900 Advanced Research in Chemistry or one year of CHEM 29600 Research in Chemistry during their third or fourth years.
To be eligible to receive honors, students in the BA or BS degree program in Chemistry must write a creditable honors paper describing their research. The paper must be submitted before the deadline established by the Director of Undergraduate Studies (DUS) and must be approved by the Department of Chemistry. In addition, an oral presentation of the research is required. The research paper or project used to meet this requirement may not be used to meet the BA paper or project requirement in another major.
To earn a BA or BS degree with honors in Chemistry, students must also have an overall GPA of 3.0 or higher.
Sample Program
The following is a suggested schedule for completing a BA or BS degree in Chemistry:
First Year
CHEM 10100-CHEM 10200-CHEM 11300 Introductory General Chemistry I-II + Comprehensive General Chemistry III, or CHEM 11100-11200-11300 Comprehensive General Chemistry I-II-III, or CHEM 12100-12200-12300 Honors General Chemistry I-II-III
MATH 15100-15200-15300 Calculus I-II-III or equivalent
Second Year
CHEM 22000-22100-22200 Organic Chemistry I-II-III
MATH 18400 Mathematical Methods in the Physical Sciences II and MATH 18500 Mathematical Methods in the Physical Sciences III
Physics sequence (three quarters)
Third Year
CHEM 26100-26200-26300 Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics (if physics is taken in the second year)
CHEM 26700 Experimental Physical Chemistry
CHEM 20100 Inorganic Chemistry I
CHEM 20200 Inorganic Chemistry II or CHEM 20300 Chemistry of Materials, CHEM 23300 Introduction to Chemical Biology, or CHEM 26300 Chemical Kinetics and Dynamics (for BS)
Fourth Year
CHEM 26100-26200-26300 Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics (if physics taken in the third year)
CHEM 26700 Experimental Physical Chemistry
CHEM 23300 Introduction to Chemical Biology or CHEM 26300 Chemical Kinetics and Dynamics (for BS)
CHEM 22700 Advanced Organic/Inorganic Laboratory or CHEM 26800 Quantum Molecular and Materials Modeling (for BS)
Grading
Students majoring in Chemistry must earn (1) a major GPA of 2.0 or higher and (2) a C- or higher in all courses required by the Chemistry major, including those courses counting toward general education requirements in the mathematical and physical sciences. Nonmajors may take Chemistry courses on a P/F basis; only grades of C- or higher constitute passing work.
Laboratory Safety
In chemistry labs, safety goggles must be worn at all times. Students who require prescriptive lenses may wear prescription glasses under goggles; contact lenses may not be worn. Exceptions for medical reasons must be obtained from the lab director.
Minor in Chemistry
Before a student can declare the minor in Chemistry, the student must complete the general education requirements in Chemistry. A student must receive the Director of Undergraduate Studies (DUS) approval for the minor program; this is done through the Consent to Complete a Minor Program form, which can be obtained from the student’s College adviser. Once signed by the Director of Undergraduate Studies, this form must then be returned to the student’s College adviser by the end of Spring Quarter of the student’s third year.
To earn the minor in Chemistry, a student must complete five courses as outlined below. All lecture courses in the 20000 level (or above) in Chemistry can be used as electives for the minor; the student has to make sure that prerequisites for the chosen courses are fulfilled. Before meeting with the director, students should invest some thought into which courses they would like to complete for the minor and how those courses relate as a set.
Courses in the minor program may not be (1) double counted with the student’s major(s) or with other minors, or (2) counted toward general education requirements. Courses in the minor must be taken for quality grades, and more than half of the requirements for the minor must be met by registering for courses bearing University of Chicago course numbers. Students minoring in Chemistry must earn (1) a minor GPA of 2.0 or higher and (2) a C– or higher in all courses required by the Chemistry minor.
Summary of Requirements: Minor in Chemistry
One of the following * | 100 | |
CHEM 11300 | Comprehensive General Chemistry III | |
CHEM 12300 | Honors General Chemistry III | |
Four additional 20000-level (or higher) courses in Chemistry | 400 | |
Total Units | 500 |
* |
If this course is already counted toward the student’s major, a 20000-level (or higher) Chemistry course can be used as a substitution for this requirement. |
Below are some examples of courses that would work as a set:
1. Organic Chemistry Courses
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 22100 | Organic Chemistry II | 100 |
CHEM 22200 | Organic Chemistry III | 100 |
CHEM 23300 | Introduction to Chemical Biology | 100 |
2. Organic/Inorganic Chemistry Courses
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 22100 | Organic Chemistry II | 100 |
CHEM 20100 | Inorganic Chemistry I | 100 |
CHEM 20200 | Inorganic Chemistry II | 100 |
OR | ||
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 22100 | Organic Chemistry II | 100 |
CHEM 20100 | Inorganic Chemistry I | 100 |
CHEM 20300 | Chemistry of Materials | 100 |
OR | ||
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 22100 | Organic Chemistry II | 100 |
CHEM 22200 | Organic Chemistry III | 100 |
CHEM 20100 | Inorganic Chemistry I | 100 |
3. Physical Chemistry Courses
CHEM 26100 | Introductory Quantum Mechanics | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
CHEM 26700 | Experimental Physical Chemistry | 100 |
OR | ||
CHEM 26100 | Introductory Quantum Mechanics | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
CHEM 26800 | Quantum Molecular and Materials Modeling | 100 |
4. Organic/Physical Chemistry Courses
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 22100 | Organic Chemistry II | 100 |
CHEM 26100 | Introductory Quantum Mechanics | 100 |
CHEM 26200 | Thermodynamics | 100 |
OR | ||
CHEM 22000 | Organic Chemistry I | 100 |
CHEM 26100 | Introductory Quantum Mechanics | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
5. Inorganic/Physical Chemistry Courses
CHEM 20100 | Inorganic Chemistry I | 100 |
CHEM 26100 | Introductory Quantum Mechanics | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
OR | ||
CHEM 20100 | Inorganic Chemistry I | 100 |
CHEM 20200 | Inorganic Chemistry II | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
OR | ||
CHEM 20100 | Inorganic Chemistry I | 100 |
CHEM 20300 | Chemistry of Materials | 100 |
CHEM 26200 | Thermodynamics | 100 |
CHEM 26300 | Chemical Kinetics and Dynamics | 100 |
Chemistry Courses
CHEM 00111-00112-00113. Collaborative Learning in General Chemistry I-II-III.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 11100-11200-11300 Comprehensive General Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Comprehensive General Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Comprehensive General Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance.
CHEM 00111. Collaborative Learning in General Chemistry I. 000 Units.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 11100-11200-11300 Comprehensive General Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Comprehensive General Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Comprehensive General Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance. Prerequisite(s): Corequisite: Concurrent enrollment in CHEM 11100 Note(s): Enrollment in CHEM 00111 is section specific: CHEM 11100-01 students should enroll in CHEM 00111-01 while CHEM 11100-02 students should enroll in CHEM 00111-02.
CHEM 00112. Collaborative Learning in General Chemistry II. 000 Units.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 11100-11200-11300 Comprehensive General Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Comprehensive General Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Comprehensive General Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance. Prerequisite(s): Corequisite: Concurrent enrollment in CHEM 11100 Note(s): Enrollment in CHEM 00111 is section specific: CHEM 11100-01 students should enroll in CHEM 00111-01 while CHEM 11100-02 students should enroll in CHEM 00111-02.
CHEM 00113. Collaborative Learning in General Chemistry III. 000 Units.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 11100-11200-11300 Comprehensive General Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Comprehensive General Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Comprehensive General Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance.
CHEM 00220-00221-00222. Collaborative Learning in Organic Chemistry I-II-III.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 22000-22100-22200 Organic Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Organic Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Organic Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance.
CHEM 00220. Collaborative Learning in Organic Chemistry I. 000 Units.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 22000-22100-22200 Organic Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Organic Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Organic Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance.
CHEM 00221. Collaborative Learning in Organic Chemistry II. 000 Units.
CHEM 00222. Collaborative Learning in Organic Chemistry III. 000 Units.
This is an optional, limited enrollment workshop for students concurrently enrolled in CHEM 22000-22100-22200 Organic Chemistry I-II-III. Undergraduate Team Leaders guide small groups of students in weekly workshops. The workshops focus on the analysis of problem sets designed to augment and complement the Organic Chemistry material. Instead of tutoring or lecturing, Team Leaders coach students as they work collaboratively in small groups on the assigned problems by referencing class lectures and assigned reading materials. The workshops do not repeat but extend the substantive discussions and lectures of the Organic Chemistry course. Additionally, these workshops aim to develop communication skills, cooperative attitudes, and promote a teamwork environment. Because the benefits of collaborative learning can only be gained through consistent effort and attendance, this zero-credit course is graded P/F based on the student’s level of participation and attendance.
CHEM 10100-10200-11300. Introductory General Chemistry I-II; Comprehensive General Chemistry III.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. The first two courses in this sequence meet the general education requirement in the physical sciences. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300.
CHEM 10100. Introductory General Chemistry I. 100 Units.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300. Prerequisite(s): Enrollment limited to first-year students Note(s): Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences.
CHEM 10200. Introductory General Chemistry II. 100 Units.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300. Prerequisite(s): Enrollment limited to first-year students Note(s): Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences.
CHEM 11300. Comprehensive General Chemistry III. 100 Units.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300.
CHEM 11100-11200-11300. Comprehensive General Chemistry I-II-III.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. This three-quarter sequence is a comprehensive survey of modern descriptive, inorganic, and physical chemistry for students with a good secondary school exposure to general chemistry. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Attendance at one discussion session per week and laboratory sessions is required.
CHEM 11100. Comprehensive General Chemistry I. 100 Units.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. This three-quarter sequence is a comprehensive survey of modern descriptive, inorganic, and physical chemistry for students with a good secondary school exposure to general chemistry. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Attendance at one discussion session per week and laboratory sessions is required. Prerequisite(s): Good performance on the mathematics/calculus and chemistry placement tests Note(s): Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences.
CHEM 11200. Comprehensive General Chemistry II. 100 Units.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300.
CHEM 11300. Comprehensive General Chemistry III. 100 Units.
This three-quarter sequence is a systematic introduction to chemistry for beginning students in chemistry or for those whose exposure to the subject has been moderate. We cover atomic and molecular theories, chemical periodicity, chemical reactivity and bonding, chemical equilibria, acid-base equilibria, solubility equilibria, phase equilibria, thermodynamics, electrochemistry, kinetics, quantum mechanics, and nuclear chemistry. Examples are drawn from chemical, biological, and materials systems. The laboratory portion includes an introduction to quantitative measurements, investigation of the properties of the important elements and their compounds, and experiments associated with the common ions and their separation and identification. Apart from one discussion session per week and a laboratory component, special emphasis on scientific problem-solving skills is made through two additional structured learning sessions per week devoted to quantitative reasoning. Attendance at discussion, structured learning, and laboratory sessions is mandatory. FOR THE THIRD (SPRING) QUARTER OF THE SEQUENCE, STUDENTS WILL ENROLL IN CHEM 11300.
CHEM 12100-12200-12300. Honors General Chemistry I-II-III.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. The subject matter and general program of this sequence is similar to that of the Comprehensive General Chemistry sequence. However, this accelerated course on the subject matter is designed for students deemed well prepared for a thorough and systematic study of chemistry. Introductory materials covered in the Comprehensive General Chemistry sequence are not part of the curriculum for this sequence; instead, special topics are included in each quarter to provide an in-depth examination of various subjects of current interest in chemistry. Attendance at one discussion session per week and laboratory sessions is required.
CHEM 12100. Honors General Chemistry I. 100 Units.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. The subject matter and general program of this sequence is similar to that of the Comprehensive General Chemistry sequence. However, this accelerated course on the subject matter is designed for students deemed well prepared for a thorough and systematic study of chemistry. Introductory materials covered in the Comprehensive General Chemistry sequence are not part of the curriculum for this sequence; instead, special topics are included in each quarter to provide an in-depth examination of various subjects of current interest in chemistry. Please note that individual sections in the Honors (120’s) General Chemistry sequence may vary in some content and foci based on the instructor in a given quarter. If you are curious about specific content please reach out to the instructor. Attendance at one discussion session per week and laboratory sessions is required.
CHEM 12200. Honors General Chemistry II. 100 Units.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. The subject matter and general program of this sequence is similar to that of the Comprehensive General Chemistry sequence. However, this accelerated course on the subject matter is designed for students deemed well prepared for a thorough and systematic study of chemistry. Introductory materials covered in the Comprehensive General Chemistry sequence are not part of the curriculum for this sequence; instead, special topics are included in each quarter to provide an in-depth examination of various subjects of current interest in chemistry. Please note that individual sections in the Honors (120’s) General Chemistry sequence may vary in some content and foci based on the instructor in a given quarter. If you are curious about specific content please reach out to the instructor. Attendance at one discussion session per week and laboratory sessions is required.
CHEM 12300. Honors General Chemistry III. 100 Units.
Enrollment by placement only. The first two courses in this sequence meet the general education requirement in the physical sciences. The subject matter and general program of this sequence is similar to that of the Comprehensive General Chemistry sequence. However, this accelerated course on the subject matter is designed for students deemed well prepared for a thorough and systematic study of chemistry. Introductory materials covered in the Comprehensive General Chemistry sequence are not part of the curriculum for this sequence; instead, special topics are included in each quarter to provide an in-depth examination of various subjects of current interest in chemistry. Please note that individual sections in the Honors (120’s) General Chemistry sequence may vary in some content and foci based on the instructor in a given quarter. If you are curious about specific content please reach out to the instructor. Attendance at one discussion session per week and laboratory sessions is required.
CHEM 20100-20200. Inorganic Chemistry I-II.
The extraordinarily diverse chemistry of the elements is organized in terms of molecular structure, electronic properties, and chemical reactivity. CHEM 20100 concentrates on structure and bonding, solid state chemistry, and selected topics in the chemistry of the main group elements and coordination chemistry. CHEM 20200 focuses on organometallic chemistry, reactions, synthesis, and catalysis, as well as bioinorganic chemistry.
CHEM 20100. Inorganic Chemistry I. 100 Units.
CHEM 20100 concentrates on structure and bonding, solid state chemistry, and selected topics in the chemistry of the main group elements and coordination chemistry.
CHEM 20200. Inorganic Chemistry II. 100 Units.
CHEM 20200 focuses on organometallic chemistry, reactions, synthesis, and catalysis, as well as bioinorganic chemistry.
CHEM 20300. Chemistry of Materials. 100 Units.
This course is an introduction to modern materials chemistry. It covers basic chemistry and physics of condensed systems, primarily solids and their various relatives. The electronic structure of solids will be discussed. We will review optical and electronic properties of different classes of materials using examples of semiconductors, magnetic materials, etc. We will be drawing structure-property relationships for solids. The course will also cover the fundamentals of material synthesis.
CHEM 21400. Creative Machines and Innovative Instrumentation. 100 Units.
An understanding of the techniques, tricks, and traps of building creative machines and innovative instrumentation is essential for a range of fields from the physical sciences to the arts. In this hands-on, practical course, you will design and build functional devices as a means to learn the systematic processes of engineering and fundamentals of design and construction. The kinds of things you will learn may include mechanical design and machining, computer-aided design, rapid prototyping, circuitry, electrical measurement methods, and other techniques for resolving real-world design problems. In collaboration with others, you will complete a mini-project and a final project, which will involve the design and fabrication of a functional scientific instrument. The course will be taught at an introductory level; no previous experience is expected. The iterative nature of the design process will require an appreciable amount of time outside of class for completing projects. The course is open to undergraduates in all majors (subject to the pre-requisites), as well as Master’s and Ph.D. students.
CHEM 22000-22100-22200. Organic Chemistry I-II-III.
The fundamental structures of organic molecules and the spectroscopic methods used to define them are studied. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 22000. Organic Chemistry I. 100 Units.
The fundamental structures of organic molecules and the spectroscopic methods used to define them are studied. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 22100. Organic Chemistry II. 100 Units.
The fundamental structures of organic molecules and the spectroscopic methods used to define them are studied. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 22200. Organic Chemistry III. 100 Units.
The fundamental structures of organic molecules and the spectroscopic methods used to define them are studied. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 22700. Advanced Organic/Inorganic Laboratory. 100 Units.
This course combines a project approach with exposure to the more advanced techniques of organic and inorganic chemistry. Multistep synthesis, the synthesis of air-sensitive compounds, advanced chromatographic and spectroscopic characterization of products, and the handling of reactive intermediates are a part of the lab. Students who have previously taken Chem 299 in conjunction with conducting experimental research in organic or inorganic chemistry may, in certain circumstances, substitute the Chem 227 degree requirement with their Chem 299 credit. If this applies and is of interest to you, please contact The Director of Undergraduate Studies (chem-dus@lists.uchicago.edu) as soon as possible to discuss your situation.
CHEM 23000-23100-23200. Honors Organic Chemistry I-II-III.
This course studies the fundamental structures of organic molecules and the spectroscopic methods used to define. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 23000. Honors Organic Chemistry I. 100 Units.
This course studies the fundamental structures of organic molecules and the spectroscopic methods used to define. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 23100. Honors Organic Chemistry II. 100 Units.
This course studies the fundamental structures of organic molecules and the spectroscopic methods used to define. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 23200. Honors Organic Chemistry III. 100 Units.
This course studies the fundamental structures of organic molecules and the spectroscopic methods used to define. A comprehensive understanding of the reactions and properties of organic molecules (from kinetic, thermodynamic, and mechanistic viewpoints) is developed and applied to the synthesis of organic compounds and to an appreciation of nature’s important molecules.
CHEM 23300. Introduction to Chemical Biology. 100 Units.
This course will introduce biomolecules, chemical biology approaches and genomics from chemistry perspectives. The course will be an introduction to genomics and genomics tools in research and medicine, and will provide a well-rounded view of cell structure and function, the main signaling pathways in cells, and modern methods to chemically probe, program and reprogram cells.
CHEM 26000. Light, Vision, and Matter. 100 Units.
This integrated lecture-and-lab course provides a novel introduction to matter-radiation interactions, image formation as a photon statistical process and inference problem, both single photon (statistical) and rate equation descriptions of light absorption and emission, (Fermi’s) Golden Rule for energy transfer processes, and “applications” in photo-chemistry and photo-physical processes such as photosynthesis and the first steps in vision. The labs involve single molecule/quantum dot detection and lifetime measurements, aspects of “super-resolution” microscopy, quantum interference and fluorescence resonance energy transfer (FRET); topics that are at the heart of current research in biophysics, cell biology, neuroscience and quantum physics. The course will favor physical and intuitive descriptions of topics complemented by essential mathematics vs. lengthy derivations. The course material is and labs are distinct from the Physical Chemistry sequence (Chem 261-263) and also Experimental Physical Chemistry (Chem 267), yet is complementary.
CHEM 26100-26200-26300. Quantum Mechanics; Thermodynamics; Chemical Kinetics and Dynamics.
This three-quarter sequence studies the application of physical and mathematical methods to the investigation of chemical systems.
CHEM 26100. Introductory Quantum Mechanics. 100 Units.
This course presents quantum mechanics, the Schrödinger wave equation with exact and approximate methods of solution, angular momentum, and atomic spectra and structure.
CHEM 26200. Thermodynamics. 100 Units.
This course continues the sequence with the study of thermodynamic principles and applications, as well as statistical mechanics.
CHEM 26300. Chemical Kinetics and Dynamics. 100 Units.
This course is a discussion of chemical kinetics and dynamics for processes in gases, in liquids, and at interfaces.
CHEM 26700. Experimental Physical Chemistry. 100 Units.
This course introduces the principles and practice of physical chemical measurements. Techniques used in the design and construction of apparatus are discussed in lectures, and practice is provided through lab exercises and experiments. Subjects covered include vacuum techniques, electronics, optics, use of computers in lab instrumentation, materials of construction, and data analysis. L.
CHEM 26800. Quantum Molecular and Materials Modeling. 100 Units.
Quantum mechanical methods, including quantum chemistry, density functional theory (DFT), and many body perturbation theory, for simulating the properties of molecules and materials will be explored in this course. Numerical algorithms and techniques will be introduced that allow for solution of approximate forms of the Schroedinger and Boltzmann Equations that model structural and transport properties of molecules and materials. The coupling of DFT with molecular dynamics will be detailed for determining finite temperature properties. Coupling of DFT with spin Hamiltonians to study dynamical spin correlations in materials will also be described. Examples of the application of quantum mechanical methods to materials for energy conversion and quantum information technologies will be provided.
CHEM 29600. Research in Chemistry. 000 Units.
CHEM 296 is an individually-guided, year-long, 0-credit research course and is meant to be a substitute for students who are otherwise unable to take CHEM 299. Some examples of students who should use CHEM 296 include students on a fellowship that precludes them from doing research for credit or students who don’t have room in their schedule for 299. Students must submit a written report covering their research activities to the Director of Undergraduate Studies (DUS). Research activities undertaken in this course can be used towards the writing of a thesis for the consideration of departmental honors.
CHEM 29900. Advanced Research in Chemistry. 100 Units.
Students conduct advanced, individually guided research. Students may submit a written report covering their research activities for consideration for departmental honors.
CHEM 30100. Advanced Inorganic Chemistry. 100 Units.
Group theory and its applications in inorganic chemistry are developed. These concepts are used in surveying the chemistry of inorganic compounds from the standpoint of quantum chemistry, chemical bonding principles, and the relationship between structure and reactivity.
CHEM 30200. Synthesis and Physical Methods in Inorganic Chemistry. 100 Units.
This course covers theoretical and practical aspects of important physical methods for the characterization of inorganic molecules. Topics may include NMR, IR, RAMAN, EPR, and electronic and photoelectron spectroscopy; electrochemical methods; and single-crystal X-ray diffraction.
CHEM 30400. Organometallic Chemistry. 100 Units.
This course covers preparation and properties of organometallic compounds (notably those of the transition elements, their reactions, and the concepts of homogeneous catalysis).
CHEM 30500. Nanoscale Materials. 100 Units.
This course provides an overview of nanoscale phenomena in metals, semiconductors, and magnetic materials (e.g., the fundamental aspects of quantum confinement in semiconductors and metals, superparamagnetism in nanoscale magnets, electronic properties of nanowires and carbon nanotubes, surface plasmon resonances in nanomaterials, photonic crystals). Special attention is paid to preparative aspects of nanomaterials, colloidal and gas-phase syntheses of nanoparticles, nanowires, and nanotubes. Engineered nanomaterials and their assemblies are considered promising candidates for a variety of applications, from solar cells, electronic circuits, light-emitting devices, and data storage to catalysts, biological tags, cancer treatments, and drug delivery. The course covers state-of-the art in these and other areas. Finally, the course provides an overview of the experimental techniques used for structural characterization of inorganic nanomaterials (e.g., electron microscopy, X-ray diffractometry, small-angle X-ray scattering, STM, AFM, Raman spectroscopy).
CHEM 30600. Chemistry Of The Elements and Materials. 100 Units.
This course surveys the descriptive chemistries of the main-group elements and the transition metals from a synthetic perspective, and reaction chemistry of inorganic molecules is systematically developed.
CHEM 30900. Bioinorganic Chemistry. 100 Units.
This course covers various roles of metals in biology. Topics include coordination chemistry of bioinorganic units, substrate binding and activation, electron-transfer proteins, atom and group transfer chemistry, metal homeostasis, ion channels, metals in medicine, and model systems.
CHEM 32100. Physical Organic Chemistry I. 100 Units.
This course focuses on the quantitative aspects of structure and reactivity, molecular orbital theory, and the insight it provides into structures and properties of molecules, stereochemistry, thermochemistry, kinetics, substituent and isotope effects, and pericyclic reactions.
CHEM 32200. Organic Synthesis and Structure. 100 Units.
This course considers the mechanisms, applicability, and limitations of the major reactions in organic chemistry, as well as of stereochemical control in synthesis.
CHEM 32300. Strategies and Tactics of Organic Synthesis. 100 Units.
This course discusses the important classes for organic transformation. Topics include carbon-carbon bond formation; oxidation; and reduction using a metal, non-metal, or acid-base catalyst. We also cover design of the reagents and the scope and limitation of the processes.
CHEM 32400. Physical Organic Chemistry II. 100 Units.
Topics covered in this course include the mechanisms and fundamental theories of free radicals and the related free radical reactions, biradical and carbene chemistry, and pericyclic and photochemical reactions.
CHEM 32500. Bioorganic Chemistry. 100 Units.
A goal of this course is to relate chemical phenomena with biological activities. We cover two main areas: (1) chemical modifications of biological macromolecules and their potential effects; and (2) the application of spectroscopic methods to elucidate the structure and dynamics of biologically relevant molecules.
CHEM 33000. Complex Chemical Systems. 100 Units.
This course describes chemical systems in which nonlinear kinetics lead to unexpected (emergent) behavior of the system. Autocatalytic and spatiotemporal pattern forming systems are covered, and their roles in the development and function of living systems are discussed.
CHEM 33100. New Synthetic Reactions and Catalysts. 100 Units.
This course presents recent highlights of new synthetic reactions and catalysts for efficient organic synthesis. Mechanistic details and future possibilities are discussed.
CHEM 33200-33300. Chemical Biology I-II.
This course emphasizes the concepts of physical organic chemistry (e.g., mechanism, molecular orbital theory, thermodynamics, kinetics) in a survey of modern research topics in chemical biology. Topics, which are taken from recent literature, include the roles of proteins in signal transduction pathways, the biosynthesis of natural products, strategies to engineer cells with novel functions, the role of spatial and temporal inhomogeneities in cell function, and organic synthesis and protein engineering for the development of molecular tools to characterize cellular activities.
CHEM 33200. Introduction to Chemical Biology. 100 Units.
This course will introduce biomolecules, chemical biology approaches and genomics from chemistry perspectives. The course will be an introduction to genomics and genomics tools in research and medicine, and will provide a well-rounded view of cell structure and function, the main signaling pathways in cells, and modern methods to chemically probe, program and reprogram cells.
CHEM 33300. Chemical Biology II. 100 Units.
This course will further explore the principles of biochemistry and cell biology from a chemical perspective. Molecular structure, reactivity and functional organization in biological systems – ranging from single molecules to whole organisms will be examined. Chemical concepts and tools will be applied to solve problems at the interface of chemistry, biology, and medicine. This course aims to develop and refine skills on experimental design, data analysis, interpretation and presentation while promoting the critical analysis of recent research in chemical biology. The focus of this course will be on the design, synthesis, validation and application of chemical probes, broadly defined, in modern biological research.
CHEM 33500. Chemistry of Enzyme Catalysis. 100 Units.
The course will cover fundamental aspects of the physical organic chemistry of enzyme catalysis, with special emphasis on the role of pre-oriented local electric fields in catalysis, and will use case studies based on the primary scientific literature–both classic and current papers. For each class, there will be primary scientific papers assigned that the student will be expected to have studied in depth prior to class, including “reading around” on the same and related topics; suggestions for supplementary reading will be given. Classes will be conducted as discussion sessions; guided by the Instructor–all students will be expected to be prepared to answer questions from the instructor, and to take active part in class discussions. Participation in class will count for a portion of the grade for each student.
CHEM 33600. Biological Chemistry of Materials: Principles and Applications. 100 Units.
This course will focus on principles of bioconjugation techniques; preparation of immobilized-enzymes/proteins: adsorption, occlusion, cross-linking and covalent binding. Applications of cofactor-dependent enzymes: building of enzymatic electrodes and biofuel cells. Development of immunosensors based on ELISA, electrochemistry, optics, carbon nanotubes and piezoelectric methods. Principles and design of DNA/RNA based sensors (Ribozymes, SELEX, Aptamers, DNAzymes, Molecular Beacons). Amplification methods for nucleic acids detection in test tube and in cells. Preparation and characterization of nanoparticles in nucleic acids and proteins sensing processes.
CHEM 33700. RNA Structure, Function, and Biology. 100 Units.
Students will learn principles of RNA structure and function, RNA catalysis, and RNA molecular cell biology as they relate to the field of RNA metabolism. In recent years it has become apparent that much of an organisms genome is transcribed, yielding a far more expansive collection of RNA molecules than previously thought: many of these RNAs are classic messenger RNAs that code for proteins but many serve functions other than protein coding (noncoding RNAs). These RNAs are processed, modified, and usually interact with RNA binding proteins (RBPs) to form ribonucleoprotein (RNP) complexes. We will consider emerging themes in noncoding RNA biology and investigate methods for interrogating their cellular structure and function.
CHEM 33800. Current Topics and Methods in Chemical Biology. 100 Units.
The aim of this course is to teach modern chemical biology methods, technologies, and applications as applied to problems and challenges in human health and biotechnology. Both classics in translational chemical biology and emerging technologies will be used to teach general principles in the application of chemistry to therapeutic development and biotechnology. As compared to the Chemical Biology course track (Chem332/Chem333), this course is geared more toward non-experts in chemical biology or those with a less extensive chemistry background.
CHEM 36100. Wave Mechanics and Spectroscopy. 100 Units.
This course presents the introductory concepts, general principles, and applications of wave mechanics to spectroscopy.
CHEM 36200. Quantum Mechanics. 100 Units.
This course builds upon the concepts introduced in CHEM 36100 with greater detail provided for the role of quantum mechanics in chemical physics.
CHEM 36300. Statistical Thermodynamics. 100 Units.
This course covers the thermodynamics and introductory statistical mechanics of systems at equilibrium.
CHEM 36400. Advanced Statistical Mechanics. 100 Units.
Topics covered in this course may include statistics of quantum mechanical systems, weakly and strongly interacting classical systems, phase transitions and critical phenomena, systems out of equilibrium, and polymers.
CHEM 36500. Chemical Dynamics. 100 Units.
This course develops a molecular-level description of chemical kinetics, reaction dynamics, and energy transfer in both gases and liquids. Topics include potential energy surfaces, collision dynamics and scattering theory, reaction rate theory, collisional and radiationless energy transfer, molecule-surface interactions, Brownian motion, time correlation functions, and computer simulations.
CHEM 37100. Advanced Spectroscopies. 100 Units.
This linear and nonlinear spectroscopy course includes notions on matter-radiation interaction, absorption, scattering, and oscillator strength. They are applied mostly with the optical range, but we briefly touch upon microwave (NMR, ESR) and X-rays at the extreme. We cover nonlinear optical processes such as coherent Raman, harmonic, and sum-frequency; induced transparency; slow light; and X-ray generation. We also cover coherent and incoherent dynamical probes, such as pump-probe, echos, and two-dimensional spectroscopy.
CHEM 37300. Advanced Special Topics in Theory and Computation. 100 Units.
This course introduces topics in theoretical and computational chemistry beyond those in the traditional graduate physical chemistry sequence. Specific topics will vary from year to year based on the interests of the instructor and students. Representative topics are diagrammatic methods, field theories, renormalization, nonequilibrium statistical mechanics, and quantum dynamics.
CHEM 38700. Biophysical Chemistry. 100 Units.
This course develops a physicochemical description of biological systems. Topics include macromolecules, fluid-phase lipid-bilayer structures in aqueous solution, biomembrane mechanics, control of biomolecular assembly, and computer simulations of biomolecular systems.
CHEM 39000. Solids, Materials, Surfaces. 100 Units.
This course is an introduction to modern materials chemistry. It covers basic chemistry and physics of condensed systems, such as solids, polymers, and nanomaterials. The electronic structure of metals, semiconductors and magnetically ordered phases will be discussed. We will review optical and electronic properties of different classes of materials using examples of hard and soft condensed matter systems and drawing structure-property relationships for conventional solids, polymers, and nanomaterials. Finally, the course will cover the fundamentals of surface science and material synthesis, applying modern understanding of nucleation and growth phenomena.
CHEM 39100. Polymer Synthesis. 100 Units.
This course introduces the most important polymerization reactions, focusing on their reaction mechanisms and kinetic aspects. Topics include free radical and ionic chain polymerization, step-growth polymerization, ring-opening, insertion, controlled living polymerization, crosslinking, copolymerization, and chemical modification of preformed polymers.
Chicago Pre Med Majors – Comparative Human Development
Program of Study
The program in Comparative Human Development (CHDV) focuses on the study of persons over the course of life; on the social, cultural, biological, and psychological processes that jointly influence development; and on growth over time in different social and cultural settings. The study of human development also offers a unique lens through which we consider broad questions of the social sciences, like the processes and impacts of social change, and the interactions of biology and culture. Faculty members in Comparative Human Development with diverse backgrounds in anthropology, biology, psychology, and sociology conduct research on topics that include (but are not limited to): the social and phenomenological experience of mental illness; comparative education; the impact of socioeconomic context on growth and development; the influence of social interaction on biological functioning; the tensions inherent in living in multicultural societies; the experience and development of psychotherapists in Western and non-Western countries; the ways in which youth in developing countries are forging new conceptions of adulthood; and the study of communication with developmental, cultural, and cognitive lenses. Given this interdisciplinary scope, the program in Comparative Human Development provides an excellent preparation for students interested in advanced postgraduate study at the frontiers of several social science disciplines, or in careers and professions that require a broad and integrated understanding of human experience and behavior—e.g., mental health, education, social work, health care, or human resource and organizational work in community or corporate settings
Advising
The first point of contact for undergraduates is the preceptor. Additional contact information for the year-specific preceptor can be found in the Contacts section at the bottom of this page, along with the undergraduate chair and administrator contact information. Students should declare their majors by the end of their second year.
Electronic Communication
Upon declaring a Comparative Human Development major, undergraduates should promptly join the department undergraduate email listserv to receive important announcements.
Program Requirements
The requirements below are in effect as of Autumn 2017.
Students who are pursuing a joint BA/MA degree are permitted to double count a maximum of four courses for the two degrees.
The undergraduate program in Comparative Human Development has the following components:
Core Courses
CHDV 20000 Introduction to Human Development and CHDV 20100 Human Development Research Design, a two-quarter introductory sequence in Comparative Human Development, should be completed prior to the Spring Quarter of a student’s third year. CHDV 20000 Introduction to Human Development focuses on theories of development, with particular reference to the development of the self in a social and cultural context. CHDV 20100 Human Development Research Design focuses on modes of research and inquiry in human development, including basic concepts of research design and different methods used in studying human development (e.g., ethnography, experiments, surveys, discourse analysis, narrative inquiry, and animal models). Consideration is given to the advantages and limitations of each approach in answering particular questions concerning person and culture.
Methods
Students must complete one Methods course. It may focus on qualitative or quantitative methods or may be a research methods course from a related department, such as Statistics.
The following are courses since 2012 that have fulfilled the Methods requirement without a petition. (Please note courses in this list may not be offered every academic year.)
ANTH 21420 | Ethnographic Methods | 100 |
BIOS 20151 | Introduction to Quantitative Modeling in Biology (Basic) | 100 |
BIOS 20152 | Introduction to Quantitative Modeling in Biology (Advanced) | 100 |
BIOS 20172 | Mathematical Modeling for Pre-Med Students | 100 |
BIOS 25419 | Introduction to Infectious Disease Epidemiology | 100 |
CHDV 20101 | Applied Statistics in Human Development Research | 100 |
CHDV 20299 | Ethnographic Research Methods | 100 |
CHDV 30102 | Introduction to Causal Inference | 100 |
CHDV 32411 | Mediation, Moderation, and Spillover Effects | 100 |
CHDV 37802 | Seminar: Challenging Legends and Other Received Truths: A Socratic Practicum | 100 |
CHDV 39301 | Qualitative Research Methods | 100 |
PBPL 24800 | Urban Policy Analysis | 100 |
PBPL 26301 | Field Research Project in Public Policy | 100 |
PLSC 22913 | The Practice of Social Science Research | 100 |
PSYC 20100 | Psychological Statistics | 100 |
PSYC 20200 | Psychological Research Methods | 100 |
PSYC 20250 | Introduction to Statistical Concepts and Methods | 100 |
SOCI 20001 | Sociological Methods | 100 |
SOCI 20004 | Statistical Methods of Research | 100 |
SOCI 20140 | Qualitative Field Methods | 100 |
STAT 20000 | Elementary Statistics | 100 |
STAT 22000 | Statistical Methods and Applications | 100 |
STAT 22400 | Applied Regression Analysis | 100 |
STAT 23400 | Statistical Models and Methods | 100 |
* | Courses used to fulfill a general education requirement may not be used to fulfill the major (e.g., BIOS 20151, BIOS 20152, or STAT 20000). |
Electives
All CHDV majors are required to take nine CHDV elective courses with course numbers above 20000. We encourage students to take their elective courses across the four areas of Comparative Human Development, given the department’s commitment to transdisciplinary scholarship. Many CHDV elective courses are designated as aligning with one or more distribution areas (labeled A through D); see individual course listings in the catalog. The four areas are the following:
A. Comparative Behavioral Biology: includes courses on the biopsychology of attachment; evolutionary social psychology; evolution of parenting; biological psychology; primate behavior and ecology; behavioral endocrinology.
B. Life Course Development: includes courses on social and psychological development through the life course, including courses on childhood, adolescence, adulthood, and aging; education and development; introduction to language development; the role of early experience in development; sexual and gender identity; the study of lives and families in social and cultural context.
C. Culture and Community: includes courses on cultural psychology; psychological anthropology; social psychology; cross-cultural child development; language, culture, and thought; language socialization; education in ethnic and cultural context; psychiatric and psychodynamic anthropology; memory and culture.
D. Mental Health and Personality: includes courses on personality theory and research; social and cultural foundations of mental and physical health; modern psychotherapies and their supporting institutions; psychology of well-being; conflict understanding and resolution; core concepts and current directions in psychopathology; emotion, mind, and rationality; body image in health and disorder; advanced concepts in psychoanalysis.
Petitions
Student petitions will be approved only in very limited circumstances for courses not taught or cross-listed in CHDV to count toward CHDV major requirements. These limited circumstances may include a relevant course offered during a University of Chicago study abroad program if a CHDV course is not available. Students may petition for one relevant course per quarter of study abroad to count toward the CHDV major, but only one, barring unusual circumstances. Students may also petition to take a comparable course from another department following a sudden, unanticipated change in CHDV departmental course offerings. Only university-level courses offered by the University of Chicago may be approved for CHDV requirements; no other form of credit (including Advanced Placement) is allowed. Petitions should be completed using the CHDV petition form found at humdev.uchicago.edu/content/requirements-and-forms. Petitions should include a copy of the course syllabus, since the course title alone is often not sufficient for evaluating a petition.
BA Honors Guidelines
Students with qualifying GPAs may seek to graduate with honors by successfully completing a BA honors paper that reflects scholarly proficiency in an area of study within Comparative Human Development and successfully completing two required accompanying courses:
1. CHDV 29800 BA Honors Seminar (offered in the Spring Quarter of third year) and
2. CHDV 29900 Honors Paper Preparation (offered in the Autumn Quarter of fourth year)
CHDV 29800 BA Honors Seminar can count as one of the nine elective courses required for the major. CHDV 29900 Honors Paper Preparation may not count toward major requirements; it may be used for general elective credit only. Qualified students who wish to seek CHDV honors and who plan to study abroad should plan their travel in order to ensure they are in residence at the University of Chicago during the Spring Quarter of their third year and the Autumn Quarter of their fourth year in order to take the two courses required for BA honors. Students will also be required to present their Honors Paper in the Trial Research Conference in the Spring Quarter of their fourth year.
The honors paper should reflect original research of an empirical, scholarly, or theoretical nature and must be rated as worthy of honors by the student’s BA Honors Committee. This committee shall consist of two University faculty members: a supervisor (who must be a CHDV faculty member or associate faculty member) and a second reader (who must be a University of Chicago faculty member or associate faculty member). The paper should be about 30 to 40 pages in length. The grade given for it will become the grade of record for the Honors Paper Preparation course (CHDV 29900 Honors Paper Preparation). To receive departmental honors upon graduation, students (1) must have attained a cumulative overall GPA of 3.25 or higher and a major GPA higher than 3.5 by the end of the quarter prior to the quarter of graduation, and (2) must have completed a meritorious BA honors paper under the supervision of a CHDV faculty member and received a grade of A or A- on their BA honors paper.
Permission to undertake a BA honors paper will be granted by the CHDV undergraduate chair to students who (1) have successfully completed CHDV 29800 BA Honors Seminar and (2) have filed a properly completed BA Honors Paper Proposal Form with the departmental Student Affairs Administrator no later than ninth week of Spring Quarter of the third year.
BA Honors Seminar
The CHDV 29800 BA Honors Seminar aims to help qualified students formulate a suitable proposal and find a CHDV faculty supervisor. Qualified students who wish to seek departmental honors must register for the CHDV 29800 BA Honors Seminar during Spring Quarter of their third year. Permission to register for CHDV 29800 BA Honors Seminar will be granted to students with a GPA that, at the end of Autumn Quarter of the third year, shows promise of meeting the standards set for honors (see above). This course must be taken for a quality grade and may be counted as one of the required major electives. This course is a pre-field course where students develop a ten-page research proposal and find both a CHDV supervisor and a second reader (who may be outside of the department). As part of the proposal, they learn to develop an academic “problem” while reviewing the necessary academic literature. They also decide on the discipline and methods (interviewing, ethnography, experimental design) they will use to tackle their research question.
Honors Paper Preparation Course
The CHDV 29900 Honors Paper Preparation course helps students successfully complete work on their BA honors paper. In order to complete honors, students who successfully took CHDV 29800 in Spring Quarter of their third year must also register for CHDV 29900 Honors Paper Preparation during Autumn Quarter of their fourth year. This courses is required but does not count as one of the 12 courses in the major; it may be used for general elective credit only. Students are encouraged to collect their data over the summer; then this course scaffolds the process of analyzing data (such as transcription and coding) and writing up BA papers (such as tips on describing methods and peer review). The grade assigned by the thesis supervisor on the final BA paper is retroactively assigned as the grade for this course.
BA Honors Paper for Dual Majors
In very special circumstances, students may be able to write a longer BA honors paper that meets the requirements for a dual major (with prior approval from the undergraduate program chairs in both departments). Students should consult with both chairs before the end of Spring Quarter of their third year. A consent form, available from the student’s College adviser, must be signed by both chairs and returned to the College adviser, with copies filed in both departmental offices, by the end of Autumn Quarter of the student’s graduation year.
BA Honors Paper for BA/MA Students
Students pursuing a joint BA/MA may be able to write a paper that meets the requirements for honors in CHDV and for the MA, subject to the approval of both programs. Students should consult with the Director of Undergraduate Studies of the Department of Comparative Human Development and with the Faculty Director of the MA program before the end of Spring Quarter of their third year. Students must also complete the fourth-year major course plan by the beginning of Winter Quarter in third year. Students are permitted to double count up to four courses for the major and the MA program.
Students must follow all the deadlines and requirements of the honors track of the major, including taking CHDV 29800 BA Honors Seminar and CHDV 29900 Honors Paper Preparation. To receive a BA with honors, students must (1) complete the requirements of the major and (2) submit a meritorious honors BA paper in the Spring Quarter of their fourth year in accordance with the departmental deadlines and requirements.Summary of Requirements
Earl R. Franklin Fellowship
The Earl R. Franklin Research Fellowship is awarded to select third-year students who are writing a BA thesis in Comparative Human Development. It provides financial support during the summer before the fourth year to carry out research that will be continued as a senior honors project. Applications, which are submitted at the beginning of Spring Quarter, include a research proposal, personal statement, budget, CV, and a letter of recommendation. Details can be found at our website at humdev.uchicago.edu
Comparative Human Development Courses
CHDV 12103. Treating Trans-: Practices of Medicine, Practices of Theory. 100 Units.
Medical disciplines from psychiatry to surgery have all attempted to identify and to treat gendered misalignment, while queer theory and feminisms have simultaneously tried to understand if and how trans- theories should be integrated into their respective intellectual projects. This course looks at the logics of the medical treatment of transgender (and trans- more broadly) in order to consider the mutual entanglement of clinical processes with theoretical ones. Over the quarter we will read ethnographic accounts and theoretical essays, listen to oral histories, discuss the intersections of race and ability with gender, and interrogate concepts like “material bodies” and “objective science”. Primary course questions include: 1.
CHDV 20000. Introduction to Human Development. 100 Units.
This course introduces the study of lives in context. The nature of human development from infancy through old age is explored through theory and empirical findings from various disciplines. Readings and discussions emphasize the interrelations of biological, psychological, and sociocultural forces at different points of the life cycle.
CHDV 20001. Theories of Sexuality and Gender. 100 Units.
This is a one-quarter, seminar-style course for undergraduates. Its aim is triple: to engage scenes and concepts central to the interdisciplinary study of gender and sexuality; to provide familiarity with key theoretical anchors for that study; and to provide skills for deriving the theoretical bases of any kind of method. Students will produce descriptive, argumentative, and experimental engagements with theory and its scenes as the quarter progresses.
CHDV 20101. Applied Statistics in Human Development Research. 100 Units.
This course provides an introduction to quantitative methods of inquiry and a foundation for more advanced courses in applied statistics for students in social sciences who are interested in studying human development in social contexts. The course covers univariate and bivariate descriptive statistics, an introduction to statistical inference, t test, two-way contingency table, analysis of variance, simple linear regression, and multiple regression. All statistical concepts and methods will be illustrated with applications to a series of scientific inquiries organized around describing and understanding adolescent transitions into adulthood across demographic subpopulations in contemporary American society. We will use the National Longitudinal Survey of Youth 1997 (NLSY97) throughout the course to reveal disparities between subpopulations in opportunities and life course outcomes. At the end of the course, students should be able to define and use descriptive and inferential statistics to analyze data and to interpret analytical results. No prior knowledge in statistics is assumed. High school algebra and probability are the only mathematical pre-requisites. Every student is required to participate in a lab section. Students will review the course content and learn to use the Stata software in the lab under the TA’s guidance.
CHDV 20102. Introduction to Causal Inference. 100 Units.
This course is designed for graduate students and advanced undergraduate students from the social sciences, education, public health science, public policy, social service administration, and statistics who are involved in quantitative research and are interested in studying causality. The goal of this course is to equip students with basic knowledge of and analytic skills in causal inference. Topics for the course will include the potential outcomes framework for causal inference; experimental and observational studies; identification assumptions for causal parameters; potential pitfalls of using ANCOVA to estimate a causal effect; propensity score based methods including matching, stratification, inverse-probability-of-treatment-weighting (IPTW), marginal mean weighting through stratification (MMWS), and doubly robust estimation; the instrumental variable (IV) method; regression discontinuity design (RDD) including sharp RDD and fuzzy RDD; difference in difference (DID) and generalized DID methods for cross-section and panel data, and fixed effects model. Intermediate Statistics or equivalent such as STAT 224/PBHS 324, PP 31301, BUS 41100, or SOC 30005 is a prerequisite. This course is a prerequisite for “Advanced Topics in Causal Inference” and “Mediation, moderation, and spillover effects.”
CHDV 20140. Qualitative Field Methods. 100 Units.
This course introduces techniques of, and approaches to, ethnographic field research. We emphasize quality of attention and awareness of perspective as foundational aspects of the craft. Students conduct research at a site, compose and share field notes, and produce a final paper distilling sociological insight from the fieldwork.
CHDV 20150. Language and Communication. 100 Units.
This course can also be taken by students who are not majoring in Linguistics but are interested in learning something about the uniqueness of human language, spoken or signed. It covers a selection from the following topics: What is the position of spoken language in the usually multimodal forms of communication among humans? In what ways does spoken language differ from signed language? What features make spoken and signed language linguistic? What features distinguish linguistic means of communication from animal communication? How do humans communicate with animals? From an evolutionary point of view, how can we account for the fact that spoken language is the dominant mode of communication in all human communities around the world? Why cannot animals really communicate linguistically? What do the terms language “acquisition” and “transmission” really mean? What factors account for differences between “language acquisition” by children and by adults? Are children really perfect language learners? What factors bring about language evolution, including language speciation and the emergence of new language varieties? How did language evolve in mankind? This is a general education course without any prerequisites. It provides a necessary foundation to those working on language at the graduate and undergraduate levels.
CHDV 20175. The Sociology of Deviant Behavior. 100 Units.
This course examines how distinctions between “normal” and “deviant” are created, and how these labels shift historically, culturally, and politically. We analyze the construction of social problems and moral panics (e.g., smoking, “satanic” daycares, obesity) to explore how various moral entrepreneurs shape what some sociologists call a “culture of fear.” Additionally, we investigate the impact on individuals of being labeled “deviant” either voluntarily or involuntarily, as a way of illustrating how both social control and social change operate in society.
CHDV 20300. Biological Psychology. 100 Units.
What are the relations between mind and brain? How do brains regulate mental, behavioral, and hormonal processes; and how do these influence brain organization and activity? This course introduces the anatomy, physiology, and chemistry of the brain; their changes in response to the experiential and sociocultural environment; and their relation to perception, attention, behavioral action, motivation, and emotion.
CHDV 20550. From Data to Manuscript in R. 100 Units.
This course tackles the basic skills needed to build an integrated research report with the R programming language. We will cover every step from data to manuscript including: Using R’s libraries to clean up and re-format messy datasets, preparing data sets for analysis, running statistical tools, generating clear and attractive figures and tables, and knitting those bits of code together with your manuscript writing. The result will be a reproducible, open-science friendly report that you can easily update after finishing data collection or receiving comments from readers. Never copy-paste your way through a table again! The R universe is large, so this course will focus specifically on: The core R libraries, the tidyverse library, and R Markdown. Students will also learn about the use of GitHub for version control.
CHDV 20774. Multilingualism in Mind & Social Interaction: Language, Self, & Thought in the Multilingual Context. 100 Units.
This course provides an overview of theory and research on bilingualism. Through a critical examination of psycholinguistic and sociolinguistic approaches to bilingualism, we will aim to arrive at a comprehensive account of bilingual experience and its practical implications for education and mental health in a globalizing world. In the course, we will address the following topics: 1.
CHDV 21000. Cultural Psychology. 100 Units.
There is a substantial portion of the psychological nature of human beings that is neither homogeneous nor fixed across time and space. At the heart of the discipline of cultural psychology is the tenet of psychological pluralism, which states that the study of “normal” psychology is the study of multiple psychologies and not just the study of a single or uniform fundamental psychology for all peoples of the world. Research findings in cultural psychology thus raise provocative questions about the integrity and value of alternative forms of subjectivity across cultural groups. In this course we analyze the concept of “culture” and examine ethnic and cross-cultural variations in mental functioning with special attention to the cultural psychology of emotions, self, moral judgment, categorization, and reasoning.
CHDV 21800. Primate Behavior and Ecology. 100 Units.
This course explores the behavior and ecology of nonhuman primates with emphasis on their natural history and evolution. Specific topics include methods for the study of primate behavior, history of primate behavior research, socioecology, foraging, predation, affiliation, aggression, mating, parenting, development, communication, cognition, and evolution of human behavior.
CHDV 21920. The Evolution of Language. 100 Units.
This course is designed to review critically some of the literature on the phylogenetic emergence of Language, in order to determine which questions have been central to the subject matter, which ones have recurred the most, and to what extent the answers to these are now better informed. The class will also review new questions such as the following: What is the probable time of the emergence of modern language(s)? Should we speak of the emergence of Language or of languages, in the plural?
CHDV 22350. Social Neuroscience. 100 Units.
Human beings are intensely social creatures. Our health and well-being depend on others. Social neuroscience provides an overarching paradigm to investigate social cognition and behavior, and to determine where we as a species fit within a broader biological context. The course examines how the brain mediates social cognition and behavior. It spans diverse species and disciplines (evolution, neuroscience, psychology, behavioral economics, political science). A wide range of topics is examined, including behavioral synchrony, friendship, cooperation, social decision-making, social status and hierarchies, empathy, group affiliation and identity, social influence, etc. Interdisciplinary analyses, by integrating approaches from social sciences and biological sciences, significantly expand our knowledge, and have the potential to improve our social and living conditions.
CHDV 22580. Child Development in the Classroom. 100 Units.
This discussion-based, advanced seminar is designed to investigate how preschool and elementary students think, act, and learn, as well as examine developmentally appropriate practices and culturally responsive teaching in the classroom. This course emphasizes the application of theory and research from the field of psychology to the realm of teaching and learning in contemporary classrooms. Course concepts will be grounded in empirical research and activities geared towards understanding the nuances and complexities of topics such as cognitive development (memory, attention, language), early assessment systems, standardized testing, “mindset”, “grit”, exercise/nutrition, emotion regulation, and more.
CHDV 22700. It Goes Without Saying: Conversation in Context. 100 Units.
In everyday conversation, the language we use is part of a larger interactive context. The words we use are neither spoken nor heard in a vacuum. As speakers our bodies, faces, voices, and histories send messages above and beyond the words we choose. In this course we broaden the scope of how we talk about talk, where language is just one of many ways we communicate. We explore how identity, society, and the physical world allow us to make meaning from language using perspectives from linguistics, psychology, and sociology. Over the quarter students will build a multi-modal analysis of a single interaction by examining and reexamining data through lenses such as social distance, barriers to communication, stance-taking, and gesture.
CHDV 23003. Schooling and Identity. 100 Units.
This course examines the dynamic relations between schooling and identity. We will explore how schools both enable and constrain the identities available to students and the consequences of this for academic achievement. We will examine these relations from multiple disciplinary perspectives, applying psychological, anthropological, sociological, and critical theories to understanding how students not only construct identities for themselves within schools, but also negotiate the identities imposed on them by others. Topics will include the role of peer culture, adult expectations, school practices and enduring social structures in shaping processes of identity formation in students and how these processes influence school engagement and achievement. We will consider how these processes unfold at all levels of schooling, from preschool through college, and for students who navigate a range of social identities, from marginalized to privileged.
CHDV 23005. Education and Social Inequality. 100 Units.
How and why do educational outcomes and experiences vary across student populations? What role do schools play in a society’s system of stratification? How do schools both contribute to social mobility and to the reproduction of the prevailing social order? This course examines these questions through the lens of social and cultural theory, engaging current academic debates on the causes and consequences of social inequality in educational outcomes. We will engage these debates by studying foundational and emerging theories and examining empirical research on how social inequalities are reproduced or ameliorated through schools. Through close readings of historical, anthropological and sociological case studies of schooling in the U.S, students will develop an understanding of the structural forces and cultural processes that produce inequality in neighborhoods and schools, how they contribute to unequal opportunities, experiences, and achievement outcomes for students along lines of race/ethnicity, class, gender, and immigration status, and how students themselves navigate and interpret this unequal terrain. We will cover such topics as neighborhood and school segregation; peer culture; social networks; elite schooling; the interaction between home, society and educational institutions; and dynamics of assimilation for students from immigrant communities.
CHDV 23010. Blooming, Buzzing Confusion. 100 Units.
This course examines the social and cognitive mechanisms that drive language learning in the first few years of life. Nearly all children learn the language(s) of their community, despite the fact that human languages and caregiving practices offer immense diversity around the globe. What enables the learning system to adapt so robustly to the environment it finds itself in? We discuss the evidence for and against multiple factors that have been proposed to support language development across the world’s communities. We also critically examine how these ideas intersect with current deficit models of language learning. It is expected that, by the end of the course, students will grasp the basic mechanisms proposed to underlie early language learning.
CHDV 23011. Beyond the Culture Wars: Social Movements and the Politics of Education in the U.S. 100 Units.
Passionate conflicts over school curriculum and educational policy are a recurring phenomenon in the history of US schooling. Why are schools such frequent sites of struggle and what is at stake in these conflicts? In this discussion-based seminar, we will consider schools as battlegrounds in the US “culture wars”: contests over competing visions of national identity, morality, social order, the fundamental purposes of public education, and the role of the state vis-à-vis the family. Drawing on case studies from history, anthropology, sociology and critical race and gender studies, we will examine both past and contemporary debates over school curriculum and school policy. Topics may include clashes over: the teaching of evolution, sex and sexuality education, busing/desegregation, prayer in schools, multiculturalism, the content of the literary canon, the teaching of reading, mathematics and history, and the closure of underperforming urban schools. Our inquiry will examine how social and political movements have used schools to advance or resist particular agendas and social projects.
CHDV 23012. Linguistic Anthropology of Education. 100 Units.
Students in this course will learn to think critically about the entangled roles of language and education in processes of sociocultural (re)production, that is, in how forms of social organization and collective meaning-making are produced and/or reproduced. Students will learn to analyze language use as a social activity: not merely as a code for referencing events in the world, but as a way of managing social relations. In reading about language in educational contexts, students will come to see how collectively held beliefs about language and language users inform moral, political, and often (de)racializing evaluations of better and worse ways of speaking, writing, teaching and learning, leading to differential educational opportunities, access, and outcomes. Education will be treated broadly, though there will be a focus on formal educational contexts. Nonetheless, the class will always challenge students to think about “the classroom,” including our own, as continuous and contiguous with “the real world.”
CHDV 23100. Human Language and Interaction. 100 Units.
Language may be learned by individuals, but we most often use it for communication between groups. How is it that we manage to transmit our internal thoughts to others’ minds? How is it that we can understand what others mean to express to us? Whether we are greeting a passerby, ordering a meal, or debating politics, there are a number of invisible processes that bring language to life in the space between individuals. This course investigates the social and cognitive processes that enable us to successfully communicate with others. The theories we cover are built on observations of adult language use and child development in multiple cultural settings, taking inspiration also from non-human animal communication. It is expected that, by the end of the course, students will be able to explain the limitations of language for communication and will be able to elaborate on a number of social and other cognitive processes that critically support communicative language use.
CHDV 23150. Methods in Child Development Research. 100 Units.
This course engages with one current topic (the topic differs each year) from research on child social and/or language development. We will read and discuss a collection of research studies related to this topic to gain familiarity with its primary questions, theories, and methods. We will also, together as a class, conduct a replication of an experiment- or recording-based research study related to the topic. Students should be prepared to read and discuss scientific research articles and to do hands-on research activities. Students will complete the class with expertise on the topic of focus, including experience with its associated methods.
CHDV 23249. Animal Behavior. 100 Units.
This course introduces the mechanism, ecology, and evolution of behavior, primarily in nonhuman species, at the individual and group level. Topics include the genetic basis of behavior, developmental pathways, communication, physiology and behavior, foraging behavior, kin selection, mating systems and sexual selection, and the ecological and social context of behavior. A major emphasis is placed on understanding and evaluating scientific studies and their field and lab techniques.
CHDV 23305. Critical Studies of Mental Health in Higher Education. 100 Units.
This course draws on a range of perspectives from across the interpretive, critical, and humanistic social sciences to examine the issues of mental health, illness, and distress in higher education.
CHDV 23360. Methods in Gesture and Sign Language Research. 100 Units.
In this course we will explore methods of research used in the disciplines of linguistics and psychology to investigate sign language and gesture. We will choose a set of canonical topics from the gesture and sign literature such as pointing, use of the body in quotation, and the use of non-manuals, in order to understand the value of various effective methods in current use and the types of research questions they are best equipped to handle.
CHDV 23370. Bright and Dark Sides of Empathy. 100 Units.
The experience of empathy is a powerful phenomenon. It motivates prosocial behavior, especially parental care, and facilitates cooperation and group living. As an important aspect of the patient-doctor relationship, empathy is associated with better health outcomes. Yet, empathy is limited and fragile. It is susceptible to many biases and can lead to poor moral decisions. This course invites students to critically explore the science of empathy by examining its scope and its limits. It delves into cutting-edge, interdisciplinary research from the social sciences and the biological sciences to understand the mechanisms and functions of empathy. The topics examined in this course include: The evolution of empathy; The neural and neuro-endocrinological mechanisms; How empathy develops in young children; The impact of biases and implicit attitudes on empathy; The social situations and group dynamics that influence empathy; The lack of empathy in psychopathy and narcissistic personalities; Why and how empathy improves health outcomes in medicine.
CHDV 23511. Memory, Reconciliation, and Healing: Transitional Justice. 100 Units.
Across the globe, recent national attempts to transition out of authoritarian rule and to manage the legacies of political conflicts have invoked discourses and questions of human rights. In the last fifty years, millions of people across the world have experience periods of protest and mobilization, violence and genocide, the emergence and entrenchment of armed revolutionary forces, and repressive governments. As these periods came to an end, the governments, civil societies, and individual citizens in each country have had to face the challenges of rebuilding social fabric, trust, and democratic culture while memorializing the past and considering the root causes of past conflict and authoritarianism. These processes have include discourses of rights (e.g. transitional justice, but also participation, democracy, education, etc.) and have shaped the lives of millions of individuals in these countries as well as the trajectories of each nation and its governments. The proposed course draws on Peru, South Africa, and Ireland as case studies to guide students in comparatively analyzing the transitional processes and current implications. The goal of the course is for students to explore how these societies and their citizens have sought to deal with these problematic national histories and what ways these processes continue to influence each society. The students will leave the class with a better understanding of how conflict and post-conflict issues and developments.
Equivalent Course(s): LACS 23511, HMRT 23511
CHDV 23700. Crosslinguistic Perspectives on Language Development. 100 Units.
This discussion-based course covers cross-linguistic evidence concerning similarities and dissimilarities in how children learn language across diverse language communities. Each year will revolve around a central topic. This year we will focus on the acquisition of phonology.
CHDV 23900. Introduction to Language Acquisition. 100 Units.
This course addresses the major issues involved in first-language acquisition. We deal with the child’s production and perception of speech sounds (phonology), the acquisition of the lexicon (semantics), the comprehension and production of structured word combinations (syntax), and the ability to use language to communicate (pragmatics).
CHDV 23930. Biological and Cultural Evolution. 100 Units.
This course draws on readings in and case studies of language evolution, biological evolution, cognitive development and scaffolding, processes of socialization and formation of groups and institutions, and the history and philosophy of science and technology. We seek primarily to elaborate theory to understand and model processes of cultural evolution, while exploring analogies, differences, and relations to biological evolution. This has been a highly contentious area, and we examine why. We seek to evaluate what such a theory could reasonably cover and what it cannot.Equivalent Course(s): LING 11100, CHSS 37900, NCDV 27400, ANTH 38615, ANTH 28615, LING 39286, PHIL 32500, BPRO 23900, HIPS 23900, PHIL 22500, CHDV 33930
CHDV 24010. Introduction to Health and Society II. 100 Units.
What can the social sciences teach us about the ongoing coronavirus pandemic or the opioid epidemic of the past decade? How can we understand the sources of inequalities in access to care and in health outcomes across populations, both in the United States and globally? What is the significance of varying experiences of illness, categories of disorder, ideals of well-being, and forms of intervention across cultural settings and historical periods? This course introduces students introduces students to the social, political, and economic processes that shape individual and population health, as well as to a range of concepts and methods which social scientists use to study these processes. This summer’s class will focus on the case studies of COVID-19 and the opioid epidemic, along with other cases.Equivalent Course(s): HLTH 17001, SOCI 20509, ANTH 24334
CHDV 24050. Understanding Practical Wisdom. 100 Units.
Thinking about the nature of wisdom goes back to the Greek philosophers and the classical religious sages, but the concept of wisdom has changed in many ways over the history of thought. While wisdom has received less scholarly attention in modern times, it has recently re-emerged in popular discourse with a growing recognition of its potential importance for addressing complex issues in many domains. But what is wisdom? It’s often used with a meaning more akin to “smart” or “clever.” Is it just vast knowledge? This course will examine the nature of wisdom-how it has been defined in philosophy and psychological science, how its meaning has changed, and what its essential components might be. We will discuss how current philosophical and psychological theories conceptualize wisdom and consider whether, and how, wisdom can be studied scientifically; that is, can wisdom be measured and experimentally manipulated to illuminate its underlying mechanisms and understand its functions? Finally, we will explore how concepts of wisdom can be applied in business, education, medicine, the law, and in the course of our everyday lives. Readings will be drawn from a wide array of disciplines including philosophy, classics, history, psychology, behavioral economics, medicine, and public policy. The course will include lectures by philosophers and psychologists. This course is offered in association with the Chicago Moral Philosophy Project and the Good Life program (the Hyde Park Institute).Equivalent Course(s): BPRO 24050, RLST 24055, PSYC 24060, PSYC 34060
CHDV 24599. Historical and Contemporary Issues in U.S. Racial Health Inequality. 100 Units.
This course explores persistent health inequality in the U.S. from the 1900s to the present day. The focus will be on racial gaps in urban health inequality with some discussion of rural communities. Readings will largely cover the research on Black and White gaps in health inequality, with the understanding that most of the issues discussed extend to health inequalities across many racial and ethnic groups. Readings cover the broad range of social determinants of health (socioeconomic status, education, access to health care, homelessness) and how these social determinants are rooted in longstanding legacies of American inequality. A major component of class assignments will be identifying emerging research and innovative policies and programs that point to promising pathways to eliminating health disparities.
CHDV 24702. Un/Making Citizenship: The Politics of the Intimate. 100 Units.
The state is like a gravitational force that holds people in relation to itself, tugging and turning each person to different degrees. Citizenship is the mediation of that relationship. In this course, we examine different dimensions of citizenship across the life course, considering the ways people are formed into certain kinds of subjects. We ask: how and why are intimate life events of interest not only to those involved, but also to governing authorities? From the governance of conception and birth, to the (non)conferral of legal identities, the state manages legitimacy through documents like birth certificates, whose contents or absence can shape a person’s entire life trajectory. In childhood, schools work to transform children into certain kinds of future citizens. From legal adulthood’s gradual accrual of rights — to vote, to have sex, to drink, to stand trial — to old age and long after death, citizenship extends beyond the lifecourse. Over the course of the quarter, we investigate the ways people negotiate attempts to transform them into citizens, examining in particular how citizenship is mediated in relation to religion, sexuality, migration, disability, marriage, pregnancy, old age, and death.
CHDV 24711. The Sociology of Work. 100 Units.
From the Great Depression to the Great Resignation, paid work has played a central role in American life. The average American spends 1/3 of their life at work – making it an area of the social world heavily examined by politicians, journalists, and social scientists. In this course, we will look at the structural and interpersonal dynamics of work to consider the questions of what makes a “good job” in America and who gets to decide? Our topics will include low-wage work, the stigma of “dirty jobs,” gender and racial inequality at work, physical and emotional labor on the job, side hustles and the gig economy, and life after retirement. Students will be required to write a 15 page research paper that draws on interview data they will collect over the quarter. No prior background in doing interviews is required!
CHDV 25220. Constructing a Society of Human Rights: A Psychological Framework. 100 Units.
This course is designed to discuss the ways that cultural and social psychology contribute to understandings about human rights conceptually, and how human rights issues emerge from social dynamics. Over the course of the quarter, students will learn about theories on intergroup conflict and prejudice, how an individual’s beliefs emerge from social contexts and shape their relationships with others, how obedience to authority is created and abused, and how social positioning and narratives influence conceptions of self and other. We will also discuss the relevance and impact of psychological study and data on human rights issues.
Equivalent Course(s): INRE 30600, HMRT 25220, PBPL 25220
CHDV 25599. Qualitative Analysis with MAXQDA: Interpretive Frameworks, Coding Techniques, and Quality Criteria. 100 Units.
This course is designed to provide students with the opportunity to work with and analyze qualitative data from a variety of data collection methods and approaches to analysis. Following a brief overview of the interpretive frameworks, analytic strategies, and ethics in qualitative inquiry, the course focuses on coding, content and thematic analysis, discourse analysis and mixed methods with MAXQDA.
CHDV 25699. When Cultures Collide: The Multicultural Challenge in Liberal Democracies. 100 Units.
Coming to terms with diversity in an increasingly multicultural world has become one of the most pressing public policy projects for liberal democracies in the early 21st century. One way to come to terms with diversity is to try to understand the scope and limits of toleration for variety at different national sites where immigration from foreign lands has complicated the cultural landscape. This seminar examines a series of legal and moral questions about the proper response to norm conflict between mainstream populations and cultural minority groups (including old and new immigrants), with special reference to court cases that have arisen in the recent history of the United States.
CHDV 25750. The Psychology and Neurobiology of Stress. 100 Units.
This course explores the topic of stress and its influence on behavior and neurobiology. Specifically, the course will discuss how factors such as age, gender, and social context interact to influence how we respond to stressors both physiologically and behaviorally. The course will also explore how stress influences mental and physical health.
CHDV 25900. Developmental Psychology. 100 Units.
This is an introductory course in developmental psychology, with a focus on cognitive and social development in infancy through early childhood. Example topics include children’s early thinking about number, morality, and social relationships, as well as how early environments inform children’s social and cognitive development. Where appropriate, we make links to both philosophical inquiries into the nature of the human mind, and to practical inquiries concerning education and public policy.
CHDV 26000. Social Psychology. 100 Units.
This course introduces students to the field of social psychology – the scientific study of how people think about, feel about, interact with, influence, and relate to one another. Topics covered include self and social perception, social influence, beliefs and attitudes, altruism, and intergroup processes. Where relevant, we will discuss if and how findings in social psychology can be applied in real-world contexts such as health, work, and relationships.
CHDV 26008. Principles and Methods of Measurement. 100 Units.
Accurate measurement of key theoretical constructs with known and consistent psychometric properties is one of the essential steps in quantitative social and behavioral research. However, measurement of phenomena that are not directly observable (such as psychological attributes, perceptions of organizational climate, or quality of services) is difficult. Much of the research in psychometrics has been developed in an attempt to properly define and quantify such phenomena. This course is designed to introduce students to the relevant concepts, principles, and methods underlying the construction and interpretation of tests or measures. It provides in-depth coverage of test reliability and validity, topics in test theory, and statistical procedures applicable to psychometric methods. Such understanding is essential for rigorous practice in measurement as well as for proper interpretation of research. The course is highly recommended for students who plan to pursue careers in academic research or applied practice involving the use or development of tests or measures in the social and behavioral sciences.
CHDV 26050. Race, Ethnicity, Language, and Citizenship in the United States. 100 Units.
This course is intended to help students make sense of the current discourse on diversity and inclusion/exclusion from a historical perspective. They will be trained to read critically the evolution of political discourse on citizenship in the United States since the American Revolution. They will learn to detect the role of shifting interpretations of race and ethnicity, after that of European nationality, in determining who is (not) a (full) citizen. For instance, who counted as “American” in the early stages of the Republic? Why were Native Americans and (descendants of) forced immigrants from Africa excluded at the outset? How did English become the unofficial language of American citizenship and inclusion? What factors favored its rise and drove to extinction the competing European national languages?
CHDV 26200. Signs of Crisis: Ethnographies of Self and Society in Turbulent Times. 100 Units.
Societies” and “selves” make each other up. Under ordinary circumstances, we know intuitively what it means to live in the world. We don’t think much about it, though, until things start falling apart. Maybe you suffer a trauma or an environmental disaster hits. Maybe the political system you took for granted all these years collapses, or from one day to the next, your money loses all of its value. In moments like these, and only in retrospect, your “life” and “the world” become coherent things you can talk about, as in, “My life is falling apart,” or, “This must be the end of the world as we know it.” Going further, you might wonder, “What is a world, exactly? What is it composed of? And now, as it is falling apart, how do we begin to imagine, and plan for, a new kind of future?
CHDV 26700. Language and Technology. 100 Units.
This course is concerned with the complex cultural dynamics we are immersed in as users of language and technology. Exploring those dynamics, we will ask questions fundamental to the field of linguistic anthropology, like: Who am I, and how do I know for sure? How do I glean information from my environment, and how do my information-seeking activities generate information for others? What is “context”? How are competing contexts generated, activated, or contested, and by whom? How is the rapid and ongoing substitution of channels (e.g. visual, auditory, proprioceptive) consequential for how we live and what we do? How are the messages we send out transmitted, diverted, twisted, or missed entirely, and to what end? Each week, an over-arching question like this will be introduced in readings and a short lecture, along with a set of key concepts, which students will apply in thinking about the environments with which they are most familiar. Students will have opportunities to explore connections that interest them through a range of discussion-based activities in class and in a final project, which may take one of many forms.
CHDV 26910. Introduction to Linguistic Anthropology. 100 Units.
It’s not what you say, It’s how you say it” An Introduction to Linguistic Anthropology. More than the content, the information, the semantic meanings of speech-all those aspects that tend to be the official function of language in our (and not just our) society-how does how we communicate, in all its subtle complexity, say something about us as persons? How do we “do things with words”: signal identities (of race, gender, sexuality, ethnicity, class, religion, subculture), form social relations (of solidarity and community, of social hierarchy and invidious distinction, etc.), enact power and create social difference, indeed, shape thought and social reality itself? And how do how human societies do this vary across time and space, across cultures and contexts? And how can we productively study them? In this introduction to the field of linguistic anthropology, we explore how anthropological approaches to communication can elucidate these questions to these longstanding but pressing questions of human meaningfulness in cultural and political context.
Equivalent Course(s): LING 26910, ANTH 26910
CHDV 27015. Scientific and Humanistic Contributions to Knowledge Formation. 100 Units.
In this course, we will explore whether the sciences and the humanities can make complementary contributions to the formation of knowledge, thus leading to the integration and unification of human knowledge. In the first part of the course we will take a historical approach to the issue; we will discuss how art and science were considered complementary for much of the 18th and 19th century (for example, in the views and work of Wolfgang Goethe), how they became separate (‘the two cultures’) in the middle of the 20th century with the compartmentalization of academic disciplines, and how some attempts have recently been made at a reunification under the concept of ‘consilience’. In the second part of the course, we will focus on conceptual issues such as the cognitive value of literature, the role of ideas in knowledge formation in science and literature, the role of creativity in scientific and literary production, and how scientific and philosophical ideas have been incorporated into literary fiction in the genre known as ‘the novel of ideas’. As an example of the latter, we will read the novel ‘One, No One, and 100,000’ (1926) by Luigi Pirandello and discuss how this author elaborated and articulated a view of the human persona (including issues of identity and personality) from French philosophers and psychologists such as Henri Bergson and Alfred Binet.Equivalent Course(s): CHSS 47015, KNOW 47015, HIPS 27515, CHDV 47015, SCTH 47015
CHDV 27099. Anthropology Of Trauma: Historical, Theoretical and Cross-Cultural Approaches. 100 Units.
Over the last several decades, “trauma” has become an overwhelmingly popular concept across the world. But what is trauma? What can trauma tell us about the relationship between ourselves, our pasts, and our futures? This course explores such questions from historical, theoretical, and anthropological perspectives. We will begin by studying early theorizations of “traumatic memory” as a painful shock to the psyche which could not be incorporated into the subject’s conscious memory. We will then follow how these early theories were elaborated in studies of trauma during the World Wars and the invention/discovery of “Post-Traumatic Stress Disorder” and its enshrinement in the DSM 3. In the second part of the class, we will explore how theorists and practitioners expanded on an idea that had its roots in individual experience and eventually scaled it to describe broader shared phenomena such as “cultural trauma”. Finally, in the third part of the class, we will turn to anthropology to ask how we may study the ways in which “trauma” is understood across the world today. What qualities of trauma are universal and which are socially particular? What do theories of trauma reveal and obscure when studying individual and collective suffering? We will seek to answer such questions by studying texts which consider trauma as both a specific global humanitarian discourse which travels, and as a universally occurring “social fact” which takes different shapes across different locals.
Equivalent Course(s): ANTH 27099, HLTH 27099
CHDV 27861. Darwinism and Literature. 100 Units.
In this course we will explore the notion that literary fiction can contribute to the generation of new knowledge of the human mind, human behavior, and human societies. Some novelists in the late 19th and early 20th century provided fictional portrayals of human nature that were grounded into Darwinian theory. These novelists operated within the conceptual framework of the complementarity of science and literature advanced by Goethe and the other romantics. At a time when novels became highly introspective and psychological, these writers used their literary craftsmanship to explore and illustrate universals aspects of human nature. In this course we read the work of several novelists such as George Eliot, HG Wells, Joseph Conrad, Jack London, Yuvgeny Zamyatin, Leopold von Sacher-Masoch, Italo Svevo, and Elias Canetti, and discuss how these authors anticipated the discoveries made decades later by cognitive, social, and evolutionary psychology.Equivalent Course(s): KNOW 21418, KNOW 31418, HIPS 24921, HIST 24921, CHSS 34921, CHDV 37861, HIST 34921
CHDV 27950. Evolution and Economics of Human Behavior. 100 Units.
This course explores how evolutionary biology and behavioral economics explain many different aspects of human behavior. Specific topics include evolutionary theory, natural and sexual selection, game theory, cost-benefit analyses of behavior from an evolutionary and a behavioral economics perspective, aggression, power and dominance, cooperation and competition, biological markets, parental investment, life history and risk-taking, love and mating, physical attractiveness and the market, emotion and motivation, sex and consumer behavior, cognitive biases in decision-making, and personality and psychopathology.
Equivalent Course(s): PSYC 37950, PSYC 27950, BIOS 29265, CHDV 37950, ECON 14810
CHDV 28301. Disability and Design. 100 Units.
Disability is often an afterthought, an unexpected tragedy to be mitigated, accommodated, or overcome. In cultural, political, and educational spheres, disabilities are non-normative, marginal, even invisible. This runs counter to many of our lived experiences of difference where, in fact, disabilities of all kinds are the “new normal.” In this interdisciplinary course, we center both the category and experience of disability. Moreover, we consider the stakes of explicitly designing for different kinds of bodies and minds. Rather than approaching disability as a problem to be accommodated, we consider the affordances that disability offers for design. This course begins by situating us in the growing discipline of Disability Studies and the activist (and intersectional) Disability Justice movement. We then move to four two-week units in specific areas where disability meets design: architecture, infrastructure, and public space; education and the classroom; economics, employment, and public policy; and aesthetics. Traversing from architecture to art, and from education to economic policy, this course asks how we can design for access.Equivalent Course(s): MAAD 28300, MUSI 35719, CHDV 38301, MUSI 25719, HLTH 28301, BPRO 28300
CHDV 28955. Disability and Sexuality. 100 Units.
How have academics, activists, and policymakers across the world addressed the intersection of disability and sexuality? What are the different perspectives and issues of concern for stakeholders regarding the sexuality of disabled people? What are the social, ethical, and political stakes of talking about, representing, and analysing the nexus of disability and sexuality from a foundation in the social sciences? This class addresses these questions by engaging with a wide variety of sources, such as, ethnographic, gender studies, and disability studies writings, memoirs, blog posts, and documentaries. We begin by learning about the foundational social science concepts of disability and sexuality separately. We next move to examining key frameworks, perspectives, and debates regarding the sexual lives of disabled people. Through the class, we analyze how disability, age, gender, race, class, geographic location, and queerness shape sexual experiences of disabled people. We will consider themes of bodily pleasure and control, romantic love and marriage, reproductive choice and constraints, and the role of kinship and family. In the latter half of the class, we move to memoirs, ethnographic accounts, and documentaries that highlight the lived experiences and perspectives of disabled people. These texts and our discussions will bring up questions of ethics of representation (who gets to talk about whose sexuality), sexual autonomy, care, and personhood more broadly.
Equivalent Course(s): ANTH 28001, GNSE 12122
CHDV 29700. Undergraduate Reading and Research. 100 Units.
Select section from faculty list on web.
CHDV 29800. BA Honors Seminar. 100 Units.
Required for students seeking departmental honors, this seminar is designed to help develop an honors paper project that will be approved and supervised by a HD faculty member. A course preceptor will guide students through the process of research design and proposal writing.
CHDV 29900. Honors Paper Preparation. 100 Units.
The CHDV 29900 Honors Paper Preparation course helps students successfully complete work on their BA honors paper. In order to complete honors, students who successfully took CHDV 29800 in Spring Quarter of their third year must register for CHDV 29900 Honors Paper Preparation during Autumn Quarter of their fourth year, as a 13th required course. Students are encouraged to collect their data over the summer; then this course scaffolds the process of analyzing data (such as transcription and coding) and writing up BA papers (such as tips on describing methods and peer review). The grade assigned by their thesis supervisor on the final BA paper is retroactively assigned as the grade for this course.
Chicago Pre Med Majors – Computational and Applied Mathematics
Program of Study
The Departments of Computer Science, Mathematics, and Statistics offer a BS in Computational and Applied Mathematics. The program is designed for students who intend to specialize in computational and/or applied mathematics, as well as students who want to acquire a strong quantitative background to be applied in such varied areas as physics, biological sciences, engineering, operations research, economics, and finance.
Summary of Requirements
GENERAL EDUCATION | ||
One of the following sequences: | 200 | |
CHEM 12100
& 12200 |
Honors General Chemistry I and Honors General Chemistry II (or higher) |
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OR
|
||
PHYS 13100-13200
|
Mechanics; Electricity and Magnetism (or higher) * | |
One of the following sequences: | 200 | |
MATH 13100-13200
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Elementary Functions and Calculus I-II §+ | |
OR | ||
MATH 15100-15200
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Calculus I-II §+ | |
OR | ||
MATH 16100-16200
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Honors Calculus I-II + | |
Total Units | 400 |
MAJOR | ||
One of the following: + | 100 | |
MATH 16300
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Honors Calculus III | |
MATH 15910
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Introduction to Proofs in Analysis | |
One of the following sequences: | 300 | |
MATH 20300-20400-20500
|
Analysis in Rn I-II-III | |
MATH 20700-20800-20900
|
Honors Analysis in Rn I-II-III | |
One of the following: | 100 | |
STAT 24300
|
Numerical Linear Algebra | |
or MATH 20250
|
Abstract Linear Algebra | |
One of the following sequences: | 200 | |
CMSC 12100-12200
|
Computer Science with Applications I-II | |
CMSC 14100
& 14200 |
Introduction to Computer Science I and Introduction to Computer Science II |
|
CMSC 15100-15200
|
Introduction to Computer Science I-II | |
CMSC 16100-16200
|
Honors Introduction to Computer Science I-II | |
CMSC 27100 | Discrete Mathematics ** | 100 |
CMSC 27200 | Theory of Algorithms | 100 |
MATH 27300 | Basic Theory of Ordinary Differential Equations | 100 |
One of the following: | 100 | |
MATH 21100
|
Basic Numerical Analysis | |
MATH 21200
|
Advanced Numerical Analysis | |
STAT 24400-24500 | Statistical Theory and Methods I-II | 200 |
One of the following: *** | 100 | |
STAT 25100
|
Introduction to Mathematical Probability | |
STAT 25150
|
Introduction to Mathematical Probability-A | |
MATH 23500
|
Markov Chains, Martingales, and Brownian Motion | |
STAT 28000 | Optimization | 100 |
Three approved electives (see Elective Courses below) | 300 | |
Total Units | 1800 |
* | Students with AP credit for PHYS 12100-12200 may substitute quantitative courses in other scientific departments with permission of the director of undergraduate studies; whether these other courses count as electives within the major or as general electives will be determined by the director of undergraduate studies. |
+ | Credit may be granted by examination. |
§ | Students who take MATH 13100-13200 or MATH 15100-15200 must also take the third quarter of the sequence as a prerequisite for MATH 15910; however, neither MATH 13300 nor MATH 15300 will be counted toward the major. |
** | Students may substitute a higher-level Computer Science course in discrete mathematics or algorithms with approval of the director of undergraduate studies. |
*** | Students who take STAT 25100 or STAT 25150 may take MATH 23500 as one of their electives with approval of the director of undergraduate studies. STAT 31200 may be substituted for MATH 23500. |
Elective Courses
Students will propose a coherent set of three courses to complete the major program. These will be chosen to complete a specialization. Possibilities include: preparation for PhD programs in applied mathematics, scientific computing, machine learning, operations research, economics and finance, physical sciences, or biological sciences. These are intended to be mathematical and computational courses that complement the program and at least at the mathematical level of the advanced classes in the required courses. The program must be approved by the undergraduate adviser, who will also serve as a resource for suggested mentors and programs in different areas.
Honors
A BS with honors in Computational and Applied Mathematics requires an overall GPA of at least 3.0, a GPA in the required courses for the major of at least 3.25, and the completion of an honors paper written under the supervision of a faculty member and approved by the undergraduate adviser for the major. Students planning to complete an honors paper should submit a short proposal to the undergraduate adviser for approval by the Computational and Applied Mathematics board by the end of the student’s third year. The proposal must be approved by the board no later than the end of fifth week of the Autumn Quarter of the student’s fourth year.
Chicago Pre Med Majors – Data Science
Program of Study
The technological revolution has led to an explosion of data in domains of knowledge including medicine, policy, social sciences, commerce, and the natural sciences. Petabytes of data are being collected from a myriad of instruments, like sequencing machines for genomics and mobile devices for quantifying social interactions. In addition to driving research, data are shaping the way people work, live, and communicate. Correspondingly, new methodologies have emerged to power intelligent systems, make more accurate predictions, and gain new insight using the large volumes of data generated by scientists, entrepreneurs, and analysts.
The field of Data Science has emerged to respond to the data revolution, and the necessity to responsibly store, process, analyze, and interpret data. Transdisciplinary by nature, Data Science draws on numerous fields including statistics, computer science and applied mathematics, and also incorporates topics in privacy and ethics, philosophy of science, and economics to better understand the impact of data on society. Therefore, the Data Science curriculum combines computational and analytical skills, extensive knowledge in the domain of application, communication skills, and an emphasis on ethical considerations.
The data science program offers BA and BS degrees, as well as a minor. The minor program in data science is intended to equip students with computational and analytical comprehension and tools that will allow them to work on a variety of data-driven problems in any discipline while emphasizing important issues in data privacy, ethics, and communication. The major has several tracks that can serve different interests. Students have the possibility to pursue a program suited for a double major, and/or suited for graduate studies in data science and related fields. Students majoring in Data Science as well as those who are majoring in other fields of study and want to complete a minor in Data Science are encouraged to discuss their course choices with the Director of Undergraduate Studies. Information on the minor follows the description of the major.
Requirements
Students majoring in Data Science must meet the general education requirement in mathematical sciences with courses in calculus. (See table of summary requirements.)
The program for the BA in Data Science consists of 15 courses beyond the general education requirement. The standard curriculum includes an introductory sequence to Data Science and programming, an introductory sequence to mathematical methods, and courses on ethics in data science, data visualization, data engineering, and machine learning. In addition, the curriculum includes exposure to real-world projects through the Data Science Clinic and three electives. The BA track is recommended for students who would like to combine a Data Science major with another minor or major program.
Students interested in mathematically advanced courses and/or graduate research in Data Science can choose the Theory Track, where four MATH and STAT courses replace the mathematical methods sequence. (See Theory Track below.)
Students interested in emphasizing computational aspects of Data Science can choose the Computation Track, which requires the Introduction to Computer Science sequence. (See Computation Track below.)
The program for the BS in Data Science consists of 18 courses beyond the general education requirement. In addition to the BA requirements, students pursuing the BS must meet the following two requirements:
(i) A coherent three-quarter sequence in an independent domain of knowledge to which Data Science can be applied. This sequence can be in the natural sciences, social sciences, or humanities and sequences in which earlier courses are prerequisites for advanced ones are encouraged. Each of the three should be a course at the 20000 level or higher that counts toward a major in the natural sciences, social sciences, or humanities. Courses in STAT, CMSC, or MATH or courses that focus on methods (mathematical, computational, or statistical) may not be used for this requirement.
(ii) One of the required electives must be in the field of Machine Learning or its applications, e.g., CMSC 25700 Natural Language Processing, CMSC 25025 Machine Learning and Large-Scale Data Analysis, or CMSC 25440 Machine Learning in Medicine .
Data Science Clinic
The Data Science Clinic is a two-quarter, experiential, project-based sequence where students work in teams as data scientists with real-world clients under the supervision of instructors. The course will serve as a capstone experience that will partner with public interest organizations, industry, NGOs, government agencies, and cutting-edge researchers to source challenging, mission-driven data science projects for the clinic. Teams will vary in size depending on the type and scope of the projects. Students will work with imperfect datasets, apply models and algorithms to real-world data, navigate security and privacy issues, and communicate results to a diverse set of stakeholders, as well as engage in the broader impacts of their work. Teams will be tasked with producing key deliverables, such as data analysis, prototype data science products, and open source software, as well as final client presentations, reports, and manuscripts.
Summary of Requirements for the Major in Data Science
GENERAL EDUCATION | ||
One of the following: | 200 | |
MATH 13100-13200 | Elementary Functions and Calculus I-II | |
MATH 15100-15200 | Calculus I-II | |
MATH 16100-16200 | Honors Calculus I-II | |
MATH 16110-16210 | Honors Calculus I-II (IBL) | |
Total Units | 200 |
BA IN DATA SCIENCE | ||
Data Science | 400 | |
DATA 11800 & 11900 |
Introduction to Data Science I and Introduction to Data Science II |
|
DATA 25900 | Ethics, Fairness, Responsibility, and Privacy in Data Science | |
or CMSC 25900 | Ethics, Fairness, Responsibility, and Privacy in Data Science | |
DATA 22700 | Data Visualization and Communication | |
or CMSC 23900 | Data Visualization | |
Data Science Clinic | 200 | |
DATA 27100-27200 | Data Science Clinic I-II | |
Machine Learning (one of the following) | 100 | |
DATA 22100 | Introduction to Machine Learning ‡ | |
CMSC 25025 | Machine Learning and Large-Scale Data Analysis | |
CMSC 25300 | Mathematical Foundations of Machine Learning | |
CMSC 25400 | Machine Learning ‡ | |
Computer Science | 200 | |
DATA 12000 | Computer Science for Data Science | |
CMSC 13600 | Introduction to Data Engineering | |
Mathematics and Statistics | 300 | |
DATA 21100 | Mathematical Methods for Data Science I | |
DATA 21200 | Mathematical Methods for Data Science II | |
DATA 21300 | Models in Data Science | |
Three Electives | 300 | |
Total Units | 1500 |
BS IN DATA SCIENCE | ||
Requirements for BA in Data Science + | 1500 | |
A coherent sequence in an independent domain of knowledge | 300 | |
Total Units | 1800 |
+ |
One of the electives must be in the field of Machine Learning or its applications. |
‡ |
CMSC 25400 and DATA 22100 cannot both count toward the Data Science major or minor. |
Electives
Electives in Data Science should come from the list of representative approved courses below. This list is updated regularly. Students may petition to take electives other than those listed below, if they can demonstrate substantial data science content in those courses. A successful petition requires students to obtain approval from the program director, who will contact College Advising on the student’s behalf.
Data Science | ||
DATA 26100 | Statistical Pitfalls and Misinterpretation of Data | |
Statistics | ||
STAT 22200 | Linear Models and Experimental Design | |
STAT 24400 | Statistical Theory and Methods I | |
STAT 24500 | Statistical Theory and Methods II ‡ | |
STAT 24620 | Multivariate Statistical Analysis: Applications and Techniques | |
STAT 25100 | Introduction to Mathematical Probability | |
STAT 26300 | Introduction to Statistical Genetics | |
STAT 27400 | Nonparametric Inference | |
STAT 27725 | Machine Learning | |
STAT 28000 | Optimization | |
Computer Science | ||
CMSC 22240 | Computer Architecture for Scientists | |
CMSC 23300 | Networks and Distributed Systems | |
CMSC 23310 | Advanced Distributed Systems | |
CMSC 23500 | Introduction to Database Systems | |
CMSC 25025 | Machine Learning and Large-Scale Data Analysis | |
CMSC 25040 | Introduction to Computer Vision | |
CMSC 25300 | Mathematical Foundations of Machine Learning | |
CMSC 25400 | Machine Learning ‡ | |
CMSC 25440 | Machine Learning in Medicine | |
CMSC 25610 | Undergraduate Computational Linguistics | |
CMSC 25700 | Natural Language Processing | |
CMSC 27620 | Introduction to Bioinformatics | |
Biological Sciences | ||
BIOS 21216 | Introduction to Statistical Genetics | |
BIOS 28407 | Genomics and Systems Biology | |
BIOS 29208 | Machine Learning & Advanced Analytics for Biomedicine | |
BIOS 29331 | Clinical Research Design and Interpretation of Health Data | |
Business | ||
BUSN 20800 | Big Data | |
BUSN 20810 | Machine Learning | |
Public Policy | ||
PBPL 28829 | Artificial Intelligence for Public Policy (Public Policy) | |
Psychology | ||
PSYC 26010 | Big Data in the Psychological Sciences | |
Sociology | ||
SOCI 20519 | Spatial Cluster Analysis |
‡ |
Only one of CMSC 25400, DATA 22100, or STAT 24500 can be counted toward the Data Science major or minor. |
Theory Track
Data Science in and of itself is a field on the frontier of scientific inquiry. Students interested in mathematically advanced courses and/or graduate research in Data Science can choose to emphasize the mathematical foundations of Data Science. The theoretical curriculum will replace four courses:
- DATA 21100-DATA 21200 Mathematical Methods for Data Science I-II
- DATA 21300 Models in Data Science
- DATA 22100 Introduction to Machine Learning
with
- MATH 16300 Honors Calculus III (or MATH 15300 Calculus III + required prerequisite coursework for STAT 24300, STAT 25100, and STAT 24400)
- STAT 24300 Numerical Linear Algebra or MATH 19620 Linear Algebra
- STAT 25100 Introduction to Mathematical Probability
- STAT 24400 Statistical Theory and Methods I and STAT 24500 Statistical Theory and Methods II
Conditional on quality grades in these courses, students will be allowed to count STAT 24500 Statistical Theory and Methods II as one of their Data Science electives. In addition, students opting for this curriculum will be required to take at least one elective in the field of Machine Learning. Combined, these courses satisfy the prerequisites for a wide selection of mathematically advanced courses in Data Science, Statistics, and Mathematics.
Computation Track
Students interested in emphasizing computational aspects of Data Science may be interested in advanced Computer Science electives such as CMSC 23310 Advanced Distributed Systems or CMSC 23500 Introduction to Database Systems. To accommodate their needs, DATA 12000 Computer Science for Data Science could be replaced with CMSC 14200 Introduction to Computer Science II. Conditional on a minimum grade of C+ in CMSC 14200 Introduction to Computer Science II, CMSC 14300 Systems Programming I and CMSC 14400 Systems Programming II could count as two Data Science electives. Students who took CMSC 15200 Introduction to Computer Science II could replace DATA 12000 Computer Science for Data Science and use CMSC 15400 Introduction to Computer Systems as an elective in a similar fashion.
Double Majors (and Other)
The program makes it possible to pursue a double major in four years. Examples of possible combinations include majors in the Social Sciences, Humanities, Biological Sciences, Computer Science, or Statistics. Students interested in a double major are encouraged to discuss their course plans and obtain advice from their academic advisers and the Data Science program director. In addition, they must meet with the Data Science program director to obtain approval for their course plan.
Students who have taken MATH 19620 Linear Algebra or STAT 24300 Numerical Linear Algebra may use either of these courses to replace DATA 21200 Mathematical Methods for Data Science II. Additionally, STAT 23400 Statistical Models and Methods combined with MATH 13300 Elementary Functions and Calculus III, MATH 15300 Calculus III, MATH 16300 Honors Calculus III, or (MATH 18300 Mathematical Methods in the Physical Sciences I + MATH 18400 Mathematical Methods in the Physical Sciences II) may replace DATA 21100 Mathematical Methods for Data Science I.
Grading and Advising for the Major Program
Prospective majors must meet with the Assistant Director of Undergraduate Data Science Studies for a preliminary discussion of their plans. This preliminary meeting will address frequently asked questions and offer advice when appropriate. In contrast to the minor program, a consent form is not required for declaring the major.
Courses in the major must be taken for quality grades, and more than half of the requirements for the minor must be met by registering for courses bearing University of Chicago course numbers. Students who are majoring or minoring in Data Science must receive a quality grade of at least C in all of the courses counted toward their major or minor program in Data Science. Subject to College and divisional regulations, and with the consent of the instructor, students may register for either quality grades or for P/F grading in any 20000-level Data Science course, other than DATA 27100-27200 Data Science Clinic, that is not counted toward a major or minor in Data Science. A grade of P is given only for work of C- quality or higher.
The following policy applies to students who wish to receive a grade of Incomplete for a Data Science course: in addition to submitting the official Incomplete Form required by the College, students must have completed at least half of the total required course work with a grade of C- or better, and they must be unable to complete the remaining course work by the end of the quarter due to an emergency.
Minor in Data Science
The minor in data science targets students from all disciplines and consists of four required courses and two electives drawn from an approved list. Students may petition to take electives other than those listed below, if they can demonstrate substantial data science content in those courses. A successful petition requires students to obtain approval from the program director, who will contact College Advising on the student’s behalf.
- Introductory Sequence (four courses required):
DATA 11800 | Introduction to Data Science I | 100 |
DATA 11900 | Introduction to Data Science II | 100 |
One of the following: | 100 | |
CMSC 25300 | Mathematical Foundations of Machine Learning | |
or DATA 22100 | Introduction to Machine Learning | |
One of the following: | 100 | |
DATA 25900 | Ethics, Fairness, Responsibility, and Privacy in Data Science | |
or CMSC 25900 | Ethics, Fairness, Responsibility, and Privacy in Data Science |
- Elective Sequence (two of the following courses required):
Two of the following: | 200 | |
CMSC 13600 | Introduction to Data Engineering | |
DATA 22700 | Data Visualization and Communication | |
or CMSC 23900 | Data Visualization | |
CMSC 25025 | Machine Learning and Large-Scale Data Analysis | |
or DATA 22100 | Introduction to Machine Learning | |
STAT 22200 | Linear Models and Experimental Design |
Grading and Advising for Minor Program
Courses in the minor may not be double counted with the student’s major(s) or with other minors. Courses in the minor must be taken for quality grades, and more than half of the requirements for the minor must be met by registering for courses bearing University of Chicago course numbers.
No courses in the minor can be double counted with the student’s major(s) or with other minors, nor can they be counted toward general education requirements.
Summary of Requirements for the Minor in Data Science
Introductory Sequence: Four courses | 400 | |
Electives: Two courses | 200 | |
Total Units | 600 |
Data Science Courses
DATA 11800. Introduction to Data Science I. 100 Units.
Data science provides tools for gaining insight into specific problems using data, through computation, statistics and visualization. This course introduces students to all aspects of a data analysis process, from posing questions, designing data collection strategies, management+storing and processing of data, exploratory tools and visualization, statistical inference, prediction, interpretation and communication of results. Simple techniques for data analysis are used to illustrate both effective and fallacious uses of data science tools. Although this course is designed to be at the level of mathematical sciences courses in the Core, with little background required, we expect the students to develop computational skills that will allow them to analyze data. Computation will be done using Python and Jupyter Notebook.
Equivalent Course(s): CMSC 11800, STAT 11800
DATA 11900. Introduction to Data Science II. 100 Units.
This course is the second quarter of a two-quarter systematic introduction to the foundations of data science, as well as to practical considerations in data analysis. A broad background on probability and statistical methodology will be provided. More advanced topics on data privacy and ethics, reproducibility in science, data encryption, and basic machine learning will be introduced. We will explore these concepts with real-world problems from different domains.
DATA 12000. Computer Science for Data Science. 100 Units.
This course teaches computational thinking and programming skills to students in the Data Science program. Topics include control structures and basic data types, abstraction and functional decomposition, classes and objects in Python, basic algorithms, and an introduction to computer structure and low level representation of data types. Examples will include the application of tools such as scraping web pages and rudimentary machine learning to a variety of fields.
DATA 13820. Data Science in Quantitative Finance and Risk Management. 100 Units.
Have you started or are about to start your investment journey? Do you want to know more about terms like “recession” and “volatility,” and how they might affect your own bank account? Are you interested in mathematics and its application to human emotions? This course introduces the leading statistical models and methods which financial data researchers use to understand ever-evolving markets and build insightful financial strategies, such as machine learning, risk calculation, and portfolio management . At first, students will learn about the theoretical and applied foundations of regression and classification designs for predicting market patterns. Next, students will gain exposure to proprietary metrics such as Value-at-Risk(VaR) used to evaluate returns/losses of both single and multi-asset portfolios. Lastly, they will experiment with portfolio allocation tactics by visualizing risk-to-reward graphs under various buying and selling conditions. These techniques can be applied to the U.S. and foreign asset classes, including equities, commodities, and cryptocurrencies. Students will experience how professionals in quantitative trading, hedge funds, and risk analytics collaborate to pitch asset strategies to their clients, and form research teams to play a stock market game using the skills they learned throughout the course with the objective of maximizing the teams’ portfolio returns. All implementations will be done using Python.
DATA 21100. Mathematical Methods for Data Science I. 100 Units.
This course introduces topics in probability and calculus (III) for data science students. Topics covered include random variables and probability distributions, independence, conditional probability, expected values, the central limit theorem, the definite integral, integration of functions of several variables, sums and transformations of random variables, multivariable calculus – partial derivatives, gradients, and gradient descent.
Prerequisite(s): MATH 13200 or 15200 or 16200 (could be taken concurrently), DATA 11800 (DATA 11900 could be taken concurrently) or CMSC 12100 or CMSC 14100
DATA 21200. Mathematical Methods for Data Science II. 100 Units.
This course introduces topics in linear algebra for data science students. Topics covered include Vectors spaces, linear transformations and associated subspaces, orthogonality and projections, orthogonal (orthonormal) matrices, eigenvectors and eigenvalues, diagonalization, Det and Tr, matrix decompositions (LU decomposition, singular value decomposition), and transfer matrices and discrete stochastic processes. Assignments and examples focus on results and algorithms that are relevant to machine learning and data science.
Instructor(s): D. Biron Terms Offered: Spring
Prerequisite(s): MATH 13200 or 15200 or 16200 (could be taken concurrently), DATA 11800 (DATA 11900 could be taken concurrently) or CMSC 12100 or CMSC 14100
DATA 21300. Models in Data Science. 100 Units.
This course introduces fundamental aspects of modeling data such as regression, linearization and linear models, discrete dynamical systems, Markov chains, continuous dynamical systems, and stability analysis.
Prerequisite(s): DATA 21100 (or equivalent; DATA 21300 could be taken concurrently), DATA 21200 or STAT 24300 or MATH 19620
DATA 22100. Introduction to Machine Learning. 100 Units.
This course introduces topics in current applications of machine learning for Data Science students. Topics include machine learning models, supervised and unsupervised learning, loss functions, risk, empirical risk and overfitting, regression and classification, clustering, gradient boosting, decision trees and random forests, and (time permitting) a brief introduction to Neural Networks and deep learning.
Prerequisite(s): DATA 11900 (DATA 22100 could be taken concurrently) or CMSC 12200 or CMSC 14200; DATA 21100 (or equivalent; DATA 21300 could be taken concurrently) and DATA 21200 (or equivalent) recommended
DATA 22700. Data Visualization and Communication. 100 Units.
This course introduces best practices for presenting and communicating quantitative data. Principles of data visualization include the use of colors and negative spaces, drawing attention to important details, repetition of design motifs, appropriately using figures and tables, and combining different scales in a single figure. The course also discusses how to avoid common distortions resulting in misleading plots and figures and how to effectively communicate findings. Examples are chosen from a variety of fields, such as the biological sciences, the social sciences, and the media.
Prerequisite(s): DATA 11800 or CMSC 12100 or CMSC 14100
DATA 25422. Machine Learning for Computer Systems. 100 Units.
This course will cover topics at the intersection of machine learning and systems, with a focus on applications of machine learning to computer systems. Topics covered will include applications of machine learning models to security, performance analysis, and prediction problems in systems; data preparation, feature selection, and feature extraction; design, development, and evaluation of machine learning models and pipelines; fairness, interpretability, and explainability of machine learning models; and testing and debugging of machine learning models.
Equivalent Course(s): CMSC 25422, DATA 35422, CMSC 35422
DATA 25900. Ethics, Fairness, Responsibility, and Privacy in Data Science. 100 Units.
This course takes a technical approach to exploring societal issues of ethics, fairness, responsibility, and privacy related to the collection, use, and generalization of data. The course introduces fundamental techniques related to data acquisition, data cleaning, sampling, statistical modeling, experimental design, feature engineering, and modeling with machine learning. It then explores the problems that arise in different ways of performing those tasks, the fairness and bias of machine learning models, data visualizations, and user interfaces. In addition, the course covers anonymization and deanonymization, conceptions of privacy from a number of perspectives (statistical, legal, and philosophical), and compliance with contractual or legal requirements around data. The course concludes by discussing current controversies around the use and misuse of data. Through both programming assignments and discussions, students who complete the course will learn how to design systems that are inclusive and respectful of all data subjects.
Prerequisite(s): CMSC 11900
DATA 26100. Statistical Pitfalls and Misinterpretation of Data. 100 Units.
This course will provide tools for thinking critically about data and models that constitute evidence, e.g., for the purpose of making predictions, reaching decisions, judging the quality of information, or in the context of scientific research. The course will examine examples of misleading language and graphics and discuss good practices in representing and communicating data. Examples will include such pitfalls as data size effects, false linearity, biased or correlated samples, mistaking correlation for causation, regression to the mean, and Simpson’s paradox.
Prerequisite(s): MATH 13200 and DATA 11800 or CMSC 12100 or CMSC 14100
DATA 27100-27200. Data Science Clinic I-II.
Data Science Clinic I-II
DATA 27100. Data Science Clinic I. 100 Units.
The Data Science Clinic partners with public interest organizations to leverage data science research and technology to address pressing social and environmental challenges. The Clinic also provides students with exposure to real-world projects and problems that transcend the conventional classroom experience including: working with imperfect datasets, applying models and algorithms to real-world data, navigating security and privacy issues, communicating results to a diverse set of stakeholders (e.g., industry, public interest, government agencies), and translating information into actionable insights, policy briefs and software prototypes. The Clinic is an experiential project-based course where students work in teams as data scientists with real-world clients under the supervision of instructors. Students will be tasked with producing key deliverables, such as data analysis, open source software, as well as final client presentations, and reports.
Prerequisite(s): CMSC 13600, DATA 12000, DATA 21100, DATA 21200, DATA 22100 (or equivalent) and by permission of instructor
DATA 27200. Data Science Clinic II. 100 Units.
This is the second course in a sequence of Data Science Clinics. The Data Science Clinic partners with public interest organizations to leverage data science research and technology to address pressing social and environmental challenges. The Clinic also provides students with exposure to real-world projects and problems that transcend the conventional classroom experience including: working with imperfect datasets, applying models and algorithms to real-world data, navigating security and privacy issues, communicating results to a diverse set of stakeholders (e.g., industry, public interest, government agencies), and translating information into actionable insights, policy briefs and software prototypes. The Clinic is an experiential project-based course where students work in teams as data scientists with real-world clients under the supervision of instructors. Students will be tasked with producing key deliverables, such as data analysis, open source software, as well as final client presentations, and reports.
Prerequisite(s): DATA 27100
DATA 27420. Introduction to Causality with Machine Learning. 100 Units.
This course is an introduction to causal inference. We’ll cover the core ideas of causal inference and what distinguishes it from traditional observational modeling. This includes an introduction to some foundational ideas—structural equation models, causal directed acyclic graphs, and then do calculus. The course has a particular emphasis on the estimation of causal effects using machine learning methods.
Equivalent Course(s): STAT 27420
DATA 27751. Trustworthy Machine Learning. 100 Units.
Machine learning systems are routinely used in safety critical situations in the real world. However, they often dramatically fail! This course covers foundational and practical concerns in building machine learning systems that can be trusted. Topics include foundational issues—when do systems generalize, and why, essential results in fairness and domain shifts, and evaluations beyond standard test/train splits. This is an intermediate level course in machine learning; students should have at least one previous course in machine learning.
Chicago Pre Med Majors – Global Studies
Program of Study
The bachelor of arts degree program in Global Studies is an interdisciplinary major concerned with the interconnected and interdependent nature of the contemporary world. Its main task is to understand the flow of bodies, capital, power, and ideas that shape locations across the planet and make them part of a radically unequal but nonetheless shared global space. Students employ interdisciplinary methods and analytics, and take courses across the College in programs such as environmental studies, public health sciences, anthropology, and history, or in area studies.
Like the concept of the “global” itself, the major is not limited to specific sites or themes, but rather aims to provide students with a critical analytical framing with which to pursue their own scholarly interests. These are in areas as diverse as climate change, human rights, public health, international law, and urban studies. Students are guided by a set of thematic tracks to help them narrow their focus and develop an expertise within a given field, while engaging with the broader theoretical thrust of the major. Thanks to this flexibility, Global Studies students are often double majors and go on to a wide variety of careers
Program Requirements
Students must complete a total of 1000 units (1200 units if a student chooses to pursue honors or to write a BA thesis), a research activity, a final research paper/project/thesis, and a language requirement, broken down as follows:
Introductory Courses (2 courses)
All students are required to take the two-quarter introductory sequence to the major, GLST 23101 Global Studies I and GLST 23102 Global Studies II. These courses are offered annually and in sequence. Students are expected to complete the sequence in their second year (if possible), especially if they plan to study abroad during their third year.
Methods Course (1 course)
In their third year, students must take either a designated methods course from a Global Studies instructor, or they may enroll in an approved methods course in another program. This course must be suited to the thesis project developed and proposed in GLST 23102 Global Studies II and may double-count with a second major when appropriate. Approved courses outside of Global Studies include: ANTH 21420 Ethnographic Methods, CMLT 20109 Comparative Methods in the Humanities, GLST 26374 Ethnographic Methods in Chicago, SOCI 20001 Sociological Methods, or STAT 22000 Statistical Methods and Applications.
Thematic Tracks (4 courses)
Majors must take four courses in one of the following tracks. These courses may come from the approved course list posted on the Global Studies website or may be selected in consultation with the Program Administrator.
Political Economy
Recommended for double majors in Economics; Sociology; Political Science; Law, Letters, and Society; Public Policy Studies; and Anthropology
REPRESENTATIVE COURSES | ||
PBPL 25550 | Economic Development and Polic | 100 |
HIST 11301 | Global British Empire to 1784: War, Commerce, and Revolution | 100 |
PLSC 27541 | Race, Capitalism and the Atlantic World | 100 |
PHIL 22220 | Marx’s Capital, Volume I | 100 |
ECON 17110 | International Monetary Systems | 100 |
SOCI 20297 | Education and Social Inequality | 100 |
Health, Environment, and Urban Studies
Recommended for double majors in Environmental and Urban Studies, Geographical Studies, Public Policy Studies, Anthropology, Sociology, Environmental Science, and History, Philosophy, and Social Studies of Science and Medicine
REPRESENTATIVE COURSES | ||
HMRT 22201 | Philosophies of Environmentalism and Sustainability | 100 |
ENST 24102 | Environmental Politics | 100 |
RLST 27802 | Technology and the Human | 100 |
ENST 26801 | The Global Urban | 100 |
SOCI 20104 | Urban Structure and Process | 100 |
Law, Borders, and Security
Recommended for double majors or minors in Law, Letters, and Society; Public Policy Studies; Anthropology; and Human Rights
REPRESENTATIVE COURSES | ||
HIST 29319 | Human Rights: Philosophical Foundations | 100 |
GLST 25701 | Anthropology of Borders | 100 |
PBPL 22100 | Politics and Policy | 100 |
ANTH 21356 | The State as Imagination, Fetish, Spectacle | 100 |
LLSO 28040 | Introduction to Law, Letters, and Society | 100 |
HMRT 21005 | Militant Democracy and the Preventative State | 100 |
CMLT 29024 | States of Surveillance | 100 |
Race, Gender, and Religion
Recommended for double majors in Anthropology, History, Religious Studies, Comparative Race and Ethnic Studies, and Gender and Sexuality Studies
REPRESENTATIVE COURSES | ||
ANTH 22770 | Anthropology of Power, Status, and Performance | 100 |
RLST 21401 | Latin American Religions, New and Old | 100 |
GNSE 28498 | Women, Development and Politics | 100 |
GLST 25630 | Religious Violence | 100 |
ANTH 22845 | Xenophobia and the Politics of Belonging | 100 |
GNSE 26111 | Queer Asia(s) 1 | 100 |
Electives (3 courses)
Electives must be selected from the approved course list posted on the program website. Students may petition for the addition of courses in the social sciences or humanities and relevant to the themes pursued in Global Studies. These may include courses such as the European Civilization in Paris program or East Asian Civilizations in Beijing, as well as other courses that may not fit within the specific tracks, but may not double-count to fulfill College requirements.
Foreign Language Requirement
Students must complete six quarters of study of a language of their choice.
Research Activity Requirement
Students must have a supervised research experience before they graduate. Research activities include serving as a research assistant to a professor in any capacity, or participation in volunteer, employment, or internship opportunities relevant to the major. Students should work with the appropriate program adviser to identify opportunities and should have their activity approved ahead of the experience itself. Most activities should last no less than six weeks, though intensive programs of shorter duration may be considered. The research activity may be linked to the student’s BA thesis and ideally serves as an introduction to that topic. International experiences are encouraged for the completion of this requirement, but the requirement may be met with domestic projects dealing with global issues (for example, an internship with a domestic NGO or lawmaker). Study abroad programs alone do not fulfill this requirement; however, many students use them as an opportunity to conduct additional research.
Thesis or Final Paper/Capstone
Students have two options to complete the Global Studies major:
BA Thesis and Seminar
Students may opt to write a BA thesis organized around a contemporary global issue. For students opting to write the thesis, the process begins in the third year, when they must secure a faculty reader and submit a topic proposal together with the completed faculty reader form. In their fourth year, thesis-writing students must take a two-quarter BA thesis seminar (GLST 29800 BA Thesis Seminar I and GLST 29801 BA Thesis Seminar II) in the Autumn and Winter Quarters. The final version of the BA thesis is due by the end of the second week of the quarter in which the student plans to graduate. Successful completion of the thesis requires a passing grade from the faculty reader.
Students who hope to count their thesis for two different majors must first obtain written permission to do so from the directors of both programs; otherwise, they will be required to write two theses. Regardless of the requirements of the second major, the thesis seminar cannot be waived for the thesis to count towards the Global Studies major.
The BA thesis and seminar are requirements for students to graduate with honors in the Global Studies major.
Final Paper/Capstone
Students may opt out of writing a thesis, and instead produce a shorter final paper (approximately 20–35 pages) or project such as a podcast, short film, artwork, or other multimedia project. These projects must be approved by the Associate Director or the Faculty Director of the program. In the case of projects deviating from the standard paper format, students must demonstrate that they have the skills and/or training in their chosen medium. This paper or project should grow out of one or more of the student’s courses in the major track, and should be developed in coordination with that course instructor. This project must involve original research and be in addition to course assignments. If students choose to write a final paper with a different instructor or separate from their coursework, they must sign up for an independent reading course with the instructor who will guide a final paper. Final approval of this paper or project should be sent in writing by this instructor.
Summary of Requirements for Students Completing the Final Paper/Capstone
GLST 23101-23102 | Global Studies I-II | 200 |
One methods course | 100 | |
Four courses in one thematic track | 400 | |
Three elective courses | 300 | |
Foreign language requirement | – | |
Research activity | – | |
Total Units | 1000 |
Summary of Requirements for Students Completing the BA Thesis
GLST 23101-23102 | Global Studies I-II | 200 |
One methods course | 100 | |
Four courses in one thematic track | 400 | |
Three elective courses | 300 | |
Foreign language requirement | – | |
Research activity | – | |
GLST 29800 | BA Thesis Seminar I | 100 |
GLST 29801 | BA Thesis Seminar II | 100 |
Total Units | 1200 |
Honors
Students with an overall GPA of 3.2 or higher and a major GPA of 3.5 or higher will be eligible for honors. To be awarded final honors, students must have an overall GPA of 3.2 or higher, a major GPA of 3.5 or higher, complete both quarters of the BA thesis seminar, and write a BA thesis judged “high pass” by the faculty reader.
Advising
Students should select their courses for the Global Studies major in close consultation with the program administrator. The Global Studies program publishes a list of courses approved for the major each quarter, both online and outside the Global Studies program office, Gates-Blake 119.
Students should meet with the program administrator early in their final year to be sure they have fulfilled all requirements.
Global Studies Courses
GLST 20004. Introduction to Asian American Studies. 100 Units.
This course seeks to examine the historical context and pragmatic implications of the ethnopolitical category “Asian American.” How has this category invented or domesticated norms of Asianness even as it elides, or seeks to merge, intra-ethnic and geopolitical tensions? What is the nature of the relationship between “Asia” and “America,” and how does being “Asian American” regiment transnational relations and the politics of identity? Discussions will cover the Chinese Exclusion Act, Japanese internment camps, the Korean and Vietnam wars, affirmative action debates, model minority and perpetual foreigner tropes, as well as responses to COVID-19. How does Asian Americanness inform approaches to race and ethnicity? In other words, what difference does it make? Through the works of Mae M. Ngae, Rey Chow, Dorinne Kondo, Yến Lê Espiritu, Jasbir Puar, Jodi Kim, and others, students will be introduced to a variety of ways forward.
Instructor(s): Alice Yeh Terms Offered: Winter
Equivalent Course(s): CRES 20004, ANTH 23608, HIST 28001
GLST 20150. Sustainable Urban Development. 100 Units.
The course covers concepts and methods of sustainable urbanism, livable cities, resiliency, and smart growth principles from a social, environmental and economic perspective. In this course we examine how the development in and of cities – in the US and around the world – can be sustainable, especially given predictions of a future characterized by increasing environmental and social volatility. We begin by critiquing definitions of sustainability. The fundamental orientation of the course will be understanding cities as complex socio-natural systems, and so we will look at approaches to sustainability grouped around several of the most important component systems: climate, energy, transportation, and water. With the understanding that sustainability has no meaning if it excludes human life, perspectives from both the social sciences and humanities are woven throughout: stewardship and environmental ethics are as important as technological solutions and policy measures.
GLST 20203. Caste and Race: The Politics of Radical Equality. 100 Units.
This course will explore the bodies of knowledge surrounding the politics and practices of caste in South Asia. We will study the emergence and development of radical social movements in the colonial and postcolonial periods that were opposed to caste oppression, along with scholarship that seeks to understand how such a form of social hierarchy and difference operates within regional and national communities. We will also examine how caste interacts with forms of identity such as class, gender, and religion. Caste has often been compared to race: we will study historical parallels as well as present scholarship and activism that aligns political struggles against caste and racial injustice in South Asia and the United States. Through close readings of primary sources and secondary literature in the fields of history, political science, anthropology and literature, the course will foreground the ubiquity of caste in everyday life in South Asia; the epistemologies that have developed to explain, understand and accommodate it; and finally the urgent, radical struggles that seek to annihilate it.
GLST 20568. Historical Methods in the Social Sciences. 100 Units.
This course is designed to introduce students to the methods, theories, and problems encountered in research utilizing historical methods in the social sciences. The course pairs readings that address theoretical and ethical issues in historical methods-such as for and by whom history is written- with practical instruction in using common sources such as archives, oral histories, newspapers, and non-textual evidence. Drawing from diverse readings across the social sciences, we will examine some of the ways scholars from different fields have approached problems of structure, agency, and method; in the process, we will explore the relationship between theory and methods in our own projects. Throughout the course, students will have the opportunity to practice their skills through hands-on assignments that make use of the materials at University of Chicago and beyond.
GLST 20994. Introduction to Jainism. 100 Units.
Jainism has long been on the margins of Religious Studies, little known beyond its otherworldly emphasis on extreme forms of asceticism, nonviolence, and vegetarianism. This course seeks to expand this popular understanding of Jainism by posing a question: What does it mean to be a Jain in the world when the Jain religion is fundamentally otherworldly in its orientation? By reading ethnographies and historical studies alongside primary sources, this course will introduce students to Jainism as an enduring lived religion whose meaning and practice has changed over time, across regions, between sectarian communities, and in conversation with Buddhism and Hinduism. By the end of the quarter, students can expect to understand Jainism as a minor religion with a major impact.
GLST 21009. Justice, Solidarity, and Global Health. 100 Units.
Global health, it is said, is “one of the great moral movements of our time.” Health inequalities around the world are staggering, as is their toll on human suffering. What does a just response entail? What moves us to be just, and why do we so often fail? What do our failures of response tell us about the moral complexities involved, and importantly, about ourselves? In this course, we will consider these questions critically in terms of a basic problem of solidarity. Solidarity rests on our capacity for other-regard-for sympathy toward another-but how do we do that for distant others who are worlds apart? Is it possible, and what are the moral dangers of assuming that we can or cannot? We will test the importance of such questions for a just global health by examining some key theories of health justice, the insights of cultural and religious studies, and the question of what moves us to be just.
GLST 21301. (Re)Branding the Balkan City: Comtemp. Belgrade/Sarajevo/Zagreb. 100 Units.
The course uses an urban studies lens to explore the complex history, infrastructure and transformations of cities, mainly the capitals of today’s Serbia, Bosnia and Hercegovina, and Croatia. There is a particular need to survey this region and feed the newfound interest in it, mainly because Yugoslav architecture embodied one of the great political experiments of the modern era. Drawing on anthropological theory and ethnography of the city, we consider processes of urban destruction and renewal, practices of branding spaces and identities, urban life as praxis, art and design movements, film, music, food, architectural histories and styles, metropolitan citizenship, and the broader politics of space. The course is complemented by cultural and historical media, guest speakers, and virtual tours. One of them is a tour through the 2018 show at MoMA “Toward a Concrete Utopia: Architecture in Yugoslavia 1948-1980” a project curated with the goal to find a place for Yugoslav Modernism in the architectural canon. Classes are held in English. No knowledge of South Slavic languages is required.
GLST 21600. Francophone Caribbean Culture and Society: Art, Music, and Cinema. 100 Units.
This course provides an interdisciplinary survey of the contemporary Francophone Caribbean. Students will study a wide range of its cultural manifestations (performing arts like music and dance, literature, cinema, architecture and other visual arts, gastronomy). Attention is also paid to such sociolinguistic issues as the coexistence of French and Kreyòl, and the standardization of Kreyòl.
GLST 21601. Catalan Culture and Society: Art, Music, and Cinema. 100 Units.
This course provides an interdisciplinary survey of contemporary Catalonia. We study a wide range of its cultural manifestations (architecture, paintings, music, arts of the body, literature, cinema, gastronomy). Attention is also paid to some sociolinguistic issues, such as the coexistence of Catalan and Spanish, and the standardization of Catalan.
GLST 21816. A History of Youth in Latin America. 100 Units.
This course will examine the history of youth-as a social category, and as an experience-in Latin America. We will consider histories of childhood, student activism, and youth culture across the region to consider how young people experience everyday life, and how they effect change. Course materials will combine primary sources including film, music, and other visual and performance artworks with scholarship on childhood and youth.
GLST 22105. Sex and Gender in The City. 100 Units.
This course is designed to introduce students to some of the key concerns at the intersection of gender studies and urban studies. In this course, we will take gender relations and sexuality as our primary concern and as a constitutive aspect of social relations that vitally shape cities and urban life. We will examine how gender is inscribed in city landscapes, how it is lived and embodied in relation to race, class, and sexuality, and how it is (re)produced through violence, inequality, and resistance. Over the course of the quarter, we will draw on an interdisciplinary scholarship that approaches the central question of how and why thinking about urban life in relation to gender and sex matters.
GLST 22205. Taking Back the Land: Anthropology, Geography & Ethnoscience for Land Justice. 100 Units.
In a world of settler property regimes, corporate holdings and national parks, how are communities reclaiming the lands they’ve lost? National parks overturned; indigenous community conservation areas established; food deserts restored with expanding networks of community gardens: the last decade has seen an eruption of opportunities for land justice amidst continuing challenges from ongoing processes of capitalism, colonialism, and climate change. This course offers a wholistic anthropological approach to land justice activism that begins with strategies for building collaborations, before looking at tools to help assert claims over territories and resources, and finally, exploring ways of restoring reclaimed lands with new foodways, forests, and community governance. Alongside critical readings and guest teachings from land justice activists in Southeast Asia and North America, the course will examine how a diversity of citizen science tools are being combined with indigenous, anthropological, geographic, and ecological methods to formulate a toolkit for land justice activism and community land/resource management. From counter mapping territory with remote sensing to effective strategies used to block mining projects; from indigenous conservation planning to guerrilla gardening: this course will explore different approaches to reclaiming lands and resources.
GLST 22211. Against Caste and Race: A Parallel History of Resistance in India and in the United States. 100 Units.
The present moment represents a critical juncture in the history of movements against race-based discrimination in the United States, and caste-based oppression in India and in the Indian diaspora across the world. Since 2021, several educational institutions and corporations in the US have recognized caste as a protected category. Against this background, the course invites students to pay attention to caste as an emergent and recent form of discrimination in the US, and evaluate it against the oldest, race. The course will provide students with an overview of the major intellectual trajectories of the two movements and identify notable moments of synchronicity and solidarity between them. To this end, students will read seminal works by anti-caste and anti-race intellectuals and activists. Together, we will seek to understand the affective experiences at stake by watching films, listening to podcasts, and reading poetry and fiction. The focus will be on the analysis of innovative strategies of resistance offered against caste and race, and modes through which the discriminated claimed selfhood and emerged as subjects. Students will also examine how race and caste privileges that operate at an everyday level are directly linked with histories of discrimination and perpetuate structural exploitation. Finally, we will have a chance to compare the emergence of Critical Caste Studies as a new disciplinary approach alongside the rise of Critical Race Studies.
GLST 22523. Transpacific Des-orientations: Cultural Relations between Asia & Latin America (16th-21st centuries) 100 Units.
This course offers an overview of the cultural relations between Asia and Latin America from the 16th century to the present day. We will engage with these plural transpacific circulations – individuals, resources, goods, ideas, and sensibilities – through diverse material ranging from maps, poetry, visual arts, films, and essays to music, architecture, textiles, and social media. We will question the local and global implications of these exchanges in a (post)colonial world. A navigation between eras and areas, this course takes transpacific cultural relations as an opportunity to decenter the gaze. What do these early and dynamic circulations tell us about a globalization always centered on the (North) West of the planet? What happens with the old presumed categories of “West” and “East” when the world is lived and conceived from other locations and perspectives? What remains of “Latin” when America is apprehended from the “Pacific Rim”? Drawing on close observations and analysis of representative cultural productions, this course seeks to map the importance and diversity of these transpacific cultural itineraries and to explore alternative ways of thinking about “Latin America” as a central agent of our connected modernities. Besides enhancing your knowledge of Latin American cultural history, this course is designed to help you improve your close reading and critical thinking skills, as well as continue building on your linguistic competence in Spanish.
GLST 22700. Diaspora(s) 100 Units.
This class will orient students to the practices, frameworks, and geographies of diasporic communities from the early modern period to the present. The term’s initial origins in Jewish experiences of forced dispersal and migration underscores how its meaning is shaped by histories of collective displacement and loss, as well as invention and heritage. The discourse of diaspora remains foundational for several interdisciplinary fields, including Black studies, Asian American studies, Indigenous studies, Latinx studies, and more. Within these intellectual orientations, diasporic identities are notably expansive and unfixed. As observed by the late cultural theorist Stuart Hall, “diaspora identities are those which are constantly producing and reproducing themselves anew, through transformation and difference,” bridging old and new traditions of worldmaking, resistance, and solidarities within and across distinct diasporic sensibilities.” Students in this class will work with scholarly, literary, sonic, and visual materials demonstrating how use of diaspora alternately mobilizes and roots people, in ways that claim pasts and futures at once.
GLST 23101-23102. Global Studies I-II.
This is the Global Studies program’s core sequence, typically taken during a student’s second year. Global Studies I is an orientation course for students interested in majoring in Global Studies, while Global Studies II seeks to impart important theories and research practices through intensive, critical readings.
GLST 23101. Global Studies I. 100 Units.
What is the “globe” in Global Studies? This course introduces the Global Studies major by considering how people have organized and conceptualized political and social difference across space. From World Systems theory and coloniality to the movement of global capital and the problem of the nation-state, we will prioritize approaches offering insight into the unequal distribution and flow of power worldwide. This course will also provide brief introductions to the pressing issues confronting Global Studies today, including public health and infectious disease, borders and migration, climate change, and transnational religious and political movements.
GLST 23102. Global Studies II. 100 Units.
This second part of the introductory course sequence for Global Studies will familiarize students with empirical work within this interdisciplinary field, and will guide them through the practical steps of putting together a research project. How do we move from a research interest to a research question? How do we approach the study of social dynamics from a global perspective that emphasizes interconnectedness? How do we track the movement of ideas, people, culture, and capital across borders? How do we incorporate considerations of power, positionality, and reflexivity in our research practice? We will engage with scholarship across the social sciences and cover topics related to the four thematic tracks in the Global Studies major. As we analyze a variety of empirical cases, we will discuss approaches to case selection, theoretical grounding, data collection and analysis, and ethical research practices. At the end of the course, students will produce an annotated bibliography and a preliminary draft of their thesis proposal.
GLST 23111. Black Theology: Hopkins Versus Cone. 100 Units.
Black Theology of Liberation, an indigenous USA discipline and movement, began on July 31, 1966 and spread nationally and internationally when James H. Cone published his first book in March 1969. Since that time, a second generation has emerged. In this course, we will create a debate between the second generation (represented by Dwight N. Hopkins) and the first generation (represented by James H. Cone). We will look at the political, economic, cultural, gender, and sexual orientation parts of this debate.
GLST 23124. Prostitution in Global Perspective. 100 Units.
Prostitution has been a site of multiple regulations-whether institutional, social, or spatial. This course aims to examine various regimes and expressions of prostitution, and their transformations, from the eighteenth to the twentieth century in global perspective. We will consider the categories of gender, sex, and race, together with the processes of colonization, nation-building, and migration in order to uncover the norms and regulatory regimes that undergirded the historical life of prostitution. Readings will include area case-studies alongside comparative and transnational histories ranging from East-Asia to Latin America. We will discuss what kinds of evidence can be marshaled in service of writing these histories, and how historians of prostitution have approached archives limited by state-centric and official perspectives. Students in this course will develop the critical tools to interrogate the evolving practices of an everyday activity, and assess the possibilities and limitations of producing a global history of prostitution.
GLST 23129. Transnational Queer Politics and Practices. 100 Units.
This course aims to examine gender and sexual practices and identities in a transnational perspective. As people and ideas move across national, cultural, and racial borders, how is sexuality negotiated and redefined? How are concepts such as “global queerness” and the globalization of sexualities leveraged for change? How are queer identities and practices translated, both culturally and linguistically? To explore transnational articulations of queerness we will draw on a range of theoretical perspectives, including postcolonial, feminist, queer, and indigenous approaches to the study of sexualities. We will engage with scholarship on the politics of global gay rights discourses, on the sexual politics of migration, and on the effects of colonialism and neoliberal capitalism. By analyzing queer experiences and practices in a transnational context, our goal is to decenter and challenge Western-centric epistemologies and to dive into the complexities of cultural representations of queerness around the globe.
GLST 23150. Capitalism and Doing Good? 100 Units.
This class asks the question: is it possible to believe in capitalism (i.e., the private ownership of wealth) and do good for society? Restated, are there values that can accompany capital accumulation for positive social impact on people and the environment?
GLST 23311. Feminist Ethics. 100 Units.
Many injustices in the world are related to gender oppression and inequality. In this introductory course, we will examine the ways that feminist ethics aims to identify, assess, and correct gender biases that cause this harm. We will begin by situating feminist ethics within its historical context to understand how and why it developed. We will then consider different methods that feminists use to identify and critique oppressive social structures. With these tools in hand, we will assess several acute sources of gender oppression and inequality, including the global labor market, reproductive mores, and climate change. In doing so we will also consider proposals to remedy these harms. Throughout the course, we will ponder the intersection of gender with religion, race, class, and global location. We will be attentive to the role that Western feminism has had in shaping global views on oppression and inequality. We will also evaluate the influence of religion on feminist ethics. As we read, we will explore the normative commitments that are expressed in the texts, as well as the bases for these commitments and the sources of authority to which the authors appeal as they claim to advance gender justice. This course is an undergraduate course that assumes no prior knowledge in ethics, feminist studies, or religious studies. It will include some lectures but will be primarily seminar based.
GLST 23526. Race, Decolonization, and Human Rights in the 20th Century. 100 Units.
This course draws on a wide range of materials including historical secondary literature, primary sources, works of political theory on Black political thought, and post-colonial literature and film. Topics will include the colonial civilizing missions of the 19th century, the history of self-determination as an idea, the international repercussions of Apartheid, violent and negotiated decolonization in East Africa, post-colonial migration to Europe and the racialized politics of deportation, among others. The primary geographic focus of this course is on Africa.
GLST 23567. Who Will Write Our History?’ Truth, Justice, and Public Memorials. 100 Units.
When protesters in support of Black Lives Matter toppled a statue of slave trader Edward Colston and threw it into Bristol Harbour in the summer of 2020, their actions represented the latest move in a remarkable shift in global memory culture: For nearly a century, victims and opponents of genocide, political persecution, and imperial exploitation have made increasingly successful demands for space in the public sphere to tell their stories and make claims for justice and reparations. Our seminar will track dramatic shifts in what counts as a monument and which groups are considered worthy of remembrance. Each week of the syllabus is organized around primary materials that raise foundational questions about history and its memorialization: Should monuments be physical structures, or can archives, testimony, and even criminal trials serve major public memorial functions too? Must monuments tell redemptive stories about oppression overcome, or is it important to memorialize episodes of suffering that ultimately do not have redemptive or heroic endings? Should monuments be permanent, or can ephemera preserve collective memory? Finally, is there any role for fantasy and counterfactuals in the ways that we collectively process the traumatic past?
GLST 23825. Human Rights in the Middle East. 100 Units.
This seminar explores the broad range of human rights struggles, concerns and activism in the contemporary Middle East region. The class will examine human rights issues posed by authoritarian, dictatorial and single-party state formations in the Middle East particularly by looking at the effects of internal security apparatuses, mechanisms of state violence, and struggles for political participation and liberty. We explore ongoing indigenous struggles for recognition and autonomy, such as the Kurdish, Sahrawi and Amazigh cases, while also contextualizing the region’s complex history of colonial and neocolonial interventions by force and their human rights implications. We will examine the varied roles that non-state actors play in Middle Eastern human rights spheres, from militias to NGOs to religious and communal structures. The course will look to local actors and movements to explore forms of resistance, struggle, and social change while maneuvering through often highly-constrained political spaces. We pay particular attention to marginalized communities by looking at the rights struggles of minorities, women, children, migrant workers, the disabled, and the LGBTQ+ community in Middle Eastern contexts. Personal Status Laws and their effects on rights, especially with regard to marital relations and parental rights are considered. Interdisciplinary and varied modes of knowledge production including film serve as source materials.
GLST 24202. Justice in an Unjust World: Theories of Justice. 100 Units.
Justice as a possibility, an ideal, and as a telos is fundamental to theological and philosophical systems of ethics. Yet, each theory was formulated within and against a deeply unjust world. Every theory of justice implies an anthropology and an ontology, and each asks the question: Why isn’t life fair? How can we can we create a just society against a world that is so obviously unjust? Each theory then proposes a just solution and every theory implies a set of practices that can be interrogated. As our contemporary society becomes more sharply divided, the issues of distribution, obligation, entitlement, fair exchanges of social goods and labor, and the fair sharing of social burdens becomes more important and demanding of more inquiry. This seminar will interrogate several theories of justice, beginning in classic Hellenistic texts and moving forward to the animating theories of the classic liberal tradition: libertarianism, utilitarianism, social contract theory, and Marxism. We will then turn to other sources of justice theory such as Catholic liberation theology, capacity theory, and Jewish justice theory. We will also use our seminar to explore contemporary cases in law, medicine, science and policy that raise issues of justice and injustice. While the seminar will focus on distributive practices, we will also explore how these practices structure our systems of retributive and restorative justice.
GLST 24406. Sovereign Rights: Decolonization and the Cold War in Image and Word. 100 Units.
This course explores two historical processes often discussed in isolation: decolonization and the Cold War. Through our particular emphasis on solidarity movements arising from the global South, we consider a point in time during which shouts for political and economic equality among nations envisioned potential futures that would alter the global landscape. What transformed perceptions of the ‘Third World’ from a loose coalition of governments that sought to upend contemporary global structures, into an amorphous constitution of states perpetually in need of humanitarian aid? Over the course of the quarter we will explore these trajectories through a mixture of primary documents and visual sources, contextualized by both foundational historical scholarship and more recent interventions. Short writing assignments, library and museum visits, and class discussions will culminate in an opportunity for students to use course themes to design their own exhibit according to their own interests.
GLST 24500. The Just War. 100 Units.
Questions about war, the taking of human life, the obligations of citizenship, the role of state power, and international justice are among the most pressing topics in ethics and political life. This class will examine these matters through a close reading of Michael Walzer’s Just and Unjust Wars: A Moral Argument with Historical Illustrations, first published in 1977 and now in its 5th edition. Widely considered a classic in the ethics of war, JUW develops a theory for evaluating whether to enter war as well as decisions within war-what are known as the jus ad bellum and the jus in bello. Walzer applies his theory to a number of actual cases, ranging from military interventions to reprisals to terrorism to insurgencies to nuclear policy, all informed by the history of warfare and arguments in the history of Western thought. We will critically examine Walzer’s theory, his use of cases, and the conclusions to which his arguments lead. Along the way, we’ll examine core ideas in political morality, e.g., human rights; state sovereignty; morality, necessity, and extremity; liability and punishment, nonviolence, and killing and murder.
LST 24501. French for Global Studies and Economics. 100 Units.
Designed as an alternative to FREN 20100 for students in Business Economics, Global Studies and related fields of study, this four-skills course meets the grammatical objectives of FREN 20100 while equipping students with the basic communication skills and cultural awareness necessary in the areas of international exchange and economics. Through exposure to a wide range of material-including essays, newspaper and journal articles, film reviews, professional writing practices-and interactive exercises including discussions, in-class activities, and group projects in simulated professional situations, students will acquire the linguistic skills and sociocultural knowledge required for engagement in international exchange and business economics as well as to participate in larger debates in the Francophone context.
GLST 24506. The Rights of Immigrants and Refugees in Practice. 100 Units.
This course employs an interdisciplinary approach to examine the work of social justice advocacy for and by non-citizens in the U.S. including asylum seekers, immigrant workers, women as migrants, migrant children, and the undocumented. Our readings will place selected case studies in their local, national, and international context. We will draw on sources from law, history, sociology, political science, and the arts. Texts, films, and guest speakers will address the history of immigrants’ rights advocacy in the Chicago and the U.S., with selected global examples. Topics will include the rights of asylum seekers, the problems of migrant workers (guest-workers and the undocumented), women and children as migrants, and the impact of the global pandemic on migration in general. The case studies will illuminate the role of immigrants as leaders and the relationship between impacted communities and the state. We will meet with journalists, elected officials, organizers, academics, artists, lawyers, and immigrant community leaders to discuss distinct approaches to migrants’ rights advocacy.
GLST 24550. Major Trends in Islamic Mysticism. 100 Units.
This course examines Islamic mysticism, commonly known as Sufism, through an exploration of English translations premodern and contemporary Sufi literature in Arabic and Persian. The goal is to gain firsthand exposure of a broad spectrum of literary expressions of Islamic spirituality in their historical context, and to understand exactly what, how, and why Sufis say what they say. Each of the units will comprise of lectures and close readings of excerpts from the text in Arabic/Persian and English translation. The average reading load per week is 80 pages.
GLST 24557. Sociology of Money. 100 Units.
This course serves as an introduction to the study of money in both the public sphere and private domains. By surveying the work of economic sociologists, anthropologists, geographers, legal scholars, and historians the goal is to provide students with and introduction so economic theory by prominent social theorists. The first part of the course focuses on classical theories such as Smith, Marx, Simmel, Polyani, Veblen, and Mills. The second part of the course will look at how money shapes gendered relations in the private domain through the works of Hochschild, Zelizer, Parrenas and several others. The third part of the course addresses how current theories are insufficient for explaining the rise of new money forms such as mobily money, cryptocurrencies, NFT’s and the ways that new money fundamentally transforms social relations, politics, and society.
GLST 24902. Religion and Human Rights. 100 Units.
Religion played a crucial, but often overlooked, role in the development of post-World War II conceptions of human rights, providing principles and ideas that continue to influence contemporary human rights debates in the fields of law, public policy, and international relations. This no-prior-knowledge-necessary course explores the complex, sometimes fraught, relationship between religion and human rights from World War II to the present. We will begin by juxtaposing the role religious ideas played in the drafting of core post-war human rights documents (e.g. the Universal Declaration of Human Rights, the International Covenant on Civil and Political Rights, etc.) with the decision by drafters to omit direct references to the divine or the beliefs of specific religious communities. Using case study analysis and close reading of primary religious texts, scholarly commentary, and historical accounts, we will examine the ways in which individuals and groups from multiple religious (and non-religious) traditions both apply and push back against existing human rights norms. Throughout the course we will discuss the role religion might play in debates surrounding emerging, but still contentious, conceptions of human rights. This includes: universal healthcare, LGBTQIA+ rights, ever more complex manifestations of religious freedom, as well as whether human rights as conceived of in the mid-20th Century can be reconciled with decolonial and post-colonial perspectives.
GLST 25130. Social Theory for a Green New Deal. 100 Units.
U.S. House Resolution 109-popularly known as the Green New Deal-pledges a systemic corrective to the social and ecological harms of late industrial capitalism. With a particular focus on questions of economic and environmental justice, this seminar anthropologically assesses the prospect of a Green New Deal and its potential relationship to society, policy, and the built environment. Thinking relationally across scales and systems, we will consider the stakes of this large-scale yet still largely undefined legislative proposal and its implications for the social contract in a warming world. Attending to the ways in which race, class and gender inform late industrial life, the seminar will explore (via the environmental humanities and feminist & indigenous STS) concepts such as stewardship, climate justice, environmental racism, intergenerational ethics, more-than-human ontologies, and the Anthropocene (plus alternative frames).
GLST 25132. Debate, Dissent, Deviate: Literary Modernities in South Asia. 100 Units.
This class introduces students to the modernist movement in post-independence South Asia. Modernism will be understood here as a radical experimental movement in literature, film, photography and other arts, primarily aimed at critiquing mainstream narratives of history and culture. Given its wide scope, we will analyze a variety of texts over the ten-week duration of the class. These include novels, short stories, manifestos, essays, photographs, and films. The chronological span of the class is from the 1930s to the 1970s. Our aim will be to understand the diverse meanings of modernism as we go through our weekly readings. Was it a global phenomenon that was adopted blindly by postcolonial artists? Or were there specifically South Asian innovations that enable us to think about the local story as formative of global modernism? What bearings do such speculations have on genre, gender, and medium, as well as on politics? I will help situate the readings of each week in their specific literary and political contexts. Students will be able to evaluate, experiment with, and analyze various forms of modernist literary expressions emerging out of South Asia. This class will provide them with critical tools to interpret, assess, compare, and contrast cultural histories of non-Western locations and peoples, with an eye for literary radicalism. No prior knowledge of any South Asian language is necessary.
GLST 25151. Pacific Worlds: Race, Gender, Health, and the Environment. 100 Units.
This discussion-based course will introduce students to both classical and recent scholarship in Pacific World historiography. By adopting micro-historical, comparative, and transnational methods, students will examine the formation of three overlapping “worlds”: The Antipodes, Polynesia, and the northeastern Pacific. Analyzing the myriad intersections of race, gender, health, and the environment, we will explore a range of large-scale historical processes that shaped and reshaped the Pacific between the mid-eighteenth and the mid-twentieth centuries. These processes include European exploration, settler colonialism, and indigenous sovereignty; sex, depopulation, and race science; labor, migration, and urbanization; industrialization and environmental exploitation; and imperial expansion and citizenship. The course is intended for students with an interest in the Pacific Islands, Australasia, and the North American West, as well as those interested in race, gender, health, or the environment within indigenous, immigrant, or settler colonial contexts. Required readings – which will consist of book chapters and academic articles – will be used to contextualize and critically analyze a variety of primary sources during each class session.
GLST 25209. Jews, Arabs, and Others: Nations from the Nile to the Jordan. 100 Units.
This course considers nationbuilding as an ongoing and recurring process in the Middle East, realigning identities and communities according to the political concerns of the time. In particular, we will examine how Arabs and Others have figured in the political imagination of both Egypt and Israel-Palestine. When can Egyptians, Palestinians, and Israelis consider themselves “Arab”–and when not? What are the stakes of naming Arab-ness or claiming it for oneself? To answer these questions, this course will include readings and popular films on Arab nationalism and minorities in Egypt, the question of Jewish versus Israeli nationalism, Arab (or Mizrahi) Jews in Israel, and the relationship of Palestinian nationalism to the borders that have been drawn within the historic land of Palestine.
GLST 25245. Serious Play: Video Games and Global Politics. 100 Units.
This course approaches video games as cultural and political artifacts that can be studied to shed light on global political events and processes. Questions we will explore throughout the course include: How do we understand the relationship between video games and global capitalism? What can video games tell us about large-scale processes such as climate change, migration, war…? How do we understand issues of representation in gaming? What do video games have to do with international relations? We will approach video games from a variety of interdisciplinary perspectives, analyzing them as a form of entertainment but also as forms of art, as political objects, as reflections of social dynamics, and as channels for social critique and change. The course does not require any previous gaming knowledge nor experience, and it welcomes gamers and non-gamers interested in exploring the relationship between games and global politics.
GLST 25310. Extinction, Disaster, Dystopia: Environment and Ecology in the Indian Subcontinent. 100 Units.
This course aims to provide students an overview of key environmental and ecological issues in the Indian subcontinent. How have the unique precolonial, colonial, regional and national histories of this region shaped the peculiar nature of environmental issues? We will consider three major concepts-“extinction”, “disaster” and “dystopia” to see how they can be used to frame issues of environmental and ecological concern. Each concept will act as a framing device for issues such as conservation and preservation of wildlife, erasure of adivasi (first dwellers) ways of life, environmental justice, water scarcity and climate change. The course will aim to develop students’ ability to assess the specificity of these concepts in different disciplines. For example: What methods and sources will an environmental historian use to write about wildlife? How does this differ from the approach an ecologist or literary writer might take? Students will analyze various media: both literary and visual, such as autobiographies of shikaris (hunters), graphic novels, photographs, documentary films, ethnographic accounts and environmental history.
GLST 25316. Making a Home in the Colonial City: Insights from Literature, Films, and History. 100 Units.
The proposed course is an invitation to students to imagine the life-worlds, experiences, and spaces of the colonized populations of South Asia, particularly, from the perspective of city-dwellers. The objective of the course is three-fold: thematic, methodological, and epistemological. First, to introduce students to debates in colonial modernity using the narrative of the rise of modern cities in colonial India. Second, to equip students to handle different kinds of primary material in order to understand the interconnections between colonialism, urban space, and indigenous responses. Finally, to open up the exciting field of colonial and postcolonial studies to anyone interested in South Asia, its literature, its films, its history, and its people.
GLST 25323. The Other Catalonias: Representations of Immigration in Catalan Literature. 100 Units.
In this course we will discuss a number of Catalan texts, dating from the 1930s to 2016, on the experience of immigration and its social, cultural, and subjective impact. Representing a variety of genres, these texts will allow us to get a grasp of the complexity of a phenomenon that challenges binarisms such as us/them or foreign/native, and problematises concepts such as origins, roots, home, authenticity, citizenship, sameness and difference. We will explore the link between the representations of immigration and issues such as trauma and mourning; memory, the past and the future; national identity; gender and sexuality; the construction of discourses about identity and otherness in Catalan culture; how immigration interlinks with language conflict, and how it is framed by various linguistic ideologies; what role the subject of immigration plays in the political conflict between Catalonia and Spain; how the literature of the ‘new Catalans’ is transforming existing notions of Catalan identity; and whether we can speak of a “post-migrant condition” in Catalan literature and culture.
GLST 25630. Religious Violence. 100 Units.
Are there “proper” or “improper” practices of religion? Is it at best a matter of private belief, to be kept separate from or protected by the state? Or is it something that at times requires the state’s intervention? Does religion represent the last vestiges of the premodern world, or is it something that is integral to modern life? To answer these questions, we will call on anthropologists and other social scientists and theorists to understand, first, what is “religion,” and then what is, can be, or should be its relationship to gender, the nation, and the modern state in various historical and geographical locations, with particular attention to the Middle East and South Asia.
GLST 25655. Global Society and Religion. 100 Units.
Globalization has given rise to a world-wide religious revival, instead of solidifying secularization, as many expected. Global Islam, Buddhism, Hinduism, and Christianity flourish in the contexts of neoliberal capitalism, mass migration, and online communities. This undergraduate seminar seeks to understand this phenomenon through a series of case studies of globalized religions in China, Indonesia, India, Nigeria, Italy, and the US. These case studies will highlight historical through-lines from colonization to globalization, ethnographic data of religious motivations and belonging, and social scientific theory of diaspora and nationalism. This course is tailored for Global Studies and Religious Studies majors and double majors, but all undergraduates are welcome. No prior knowledge or coursework is required.
GLST 25673. Non-Violence: Gandhi, Mandela, and MLK. 100 Units.
How is non-violence relevant for global protest movements? This course will give students a multi-religious and transnational understanding of non-violence, focused on, but not limited to, three of its most famous practitioners: Mohandas Gandhi, Nelson Mandela, and Martin Luther King. Starting with the Indian term ahiṃsā (literally “non-injury”), we will examine classical Hindu, Buddhist, and Jain traditions of non-violence as the foundations for its later adaptations in Christian and secular contexts. Gandhi’s reinterpretation of Hindu sacred texts informed his anti-colonial movement, which directly influenced Mandela and MLK. Studying the interconnected biographies of these three figures, we will consider the powers and limitations of non-violence for their movements against colonization, apartheid, and systemic racism. Students’ final projects will then argue how non-violence impacts a protest movement of their choice: for example, Black Lives Matter, the farmers’ protests in India, or civil disobedience in Hong Kong. No prior knowledge or coursework is required.
GLST 25701. Anthropology of Borders. 100 Units.
Today, the world may seem more connected than ever. Infectious disease, data, global capital, and even “culture” seem to travel in the blink of an eye. At the same time, we’re witnessing the fortification of borders, and a resurgence of rightwing ethnonationalist populism on both sides of the Atlantic. Borders take on new significance national debates and security policy, and for those who rarely come into contact with borders, they may seem like mere metaphor for how a nation positions itself with regard to immigration, public health, and trade. But beyond the party platforms of politicians in the world’s capitols, borders are very real places, constituted by the practices of state and non-state actors alike, and creating new forms of life in response to the technologies that police them. In this course, we will take an anthropological view of borders in order to understand how they are created, policed, and inhabited, following and bucking trends in the micropractices of military, police, and bordercrossers both legal and illegal.
GLST 25945. Settler Colonialism: From the US to Palestine. 100 Units.
In this course, we will consider settler colonialism as a contemporary, ongoing process as it unfolds in both North America and the Middle East, thinking through the problems of state formation, citizenship, land expropriation, and the law in these two contexts. While US and the state of Israel share a (tentative) commitment to liberal democracy, this has hinged on the erasure of indigenous populations even as the states expanded to envelop greater swaths of territory. In the process, settler and indigenous peoples have been moved, as well as transformed, producing new subjectivities in relation to both the state and international law. Over the quarter, we will examine the transformations of space and subjects effected by the settler colonial project, drawing on historical, anthropological, and theoretical literature.
GLST 26322. Healing Traditions. 100 Units.
This seminar is a comparative exploration of medical and healing traditions and their religious, spiritual, and cultural intersections. Students will gain an understanding of the history of medicine in the Middle East, India, China, and the West, including the metaphysical systems that inform those traditions. Within the frameworks of Islamic Medicine, i.e. “prophetic medicine” and Sufi healing practices, Avicenna and the Galenic tradition, Chinese Medicine, Ayurveda and Buddhist medicine, we will discuss the following topics: Ritual healing, faith and prayer, divine healers and medical authority, etiology and pathology, religious pharmacology and drugs, mental health, spiritual states and possession, and near death experiences, among others. Students will conduct research on a particular modality in conversation with recent trends in health in modern allopathy while evaluating efficacy, scope and place of traditional modalities.
GLST 26374. Ethnographic Methods in Chicago. 100 Units.
What can the neighborhoods and communities of Chicago teach us about the wider forces shaping our society-globalization, mass mediation, immigration, and nationalism? This class prepares students to conduct ethnographic fieldwork through practical experience at field sites around our campus and city. Our course readings and discussions will equip students with the anthropological theory and methodological tools necessary for successful fieldwork. Students will apply these concepts and methods by visiting a field site of their choosing in Chicago, for example, an RSO, an NGO, a religious community, a park, or a diner. The course culminates with student presentations of their ethnographic data-field notes, maps, interviews, photos-and their analysis of how the minutia of everyday life helps us understand Chicago’s global society. No prior knowledge of anthropological theory or experience with ethnographic fieldwork is required.
GLST 26380. Indigenous Politics in Latin America. 100 Units.
This course examines the history of Indigenous policies and politics in Latin America from the first encounters with European empires through the 21st Century. Course readings and discussions will consider several key historical moments across the region: European encounters/colonization; the rise of liberalism and capitalist expansion in the 19th century; 20th-century integration policies; and pan-Indigenous and transnational social movements in recent decades. Students will engage with primary and secondary texts that offer interpretations and perspectives both within and across imperial and national boundaries.
GLST 26382. Development and Environment in Latin America. 100 Units.
Description: This course will consider the relationship between development and the environment in Latin America and the Caribbean. We will consider the social, political, and economic effects of natural resource extraction, the quest to improve places and peoples, and attendant ecological transformations, from the onset of European colonialism in the fifteenth century, to state- and private-led improvement policies in the twentieth. Some questions we will consider are: How have policies affected the sustainability of land use in the last five centuries? In what ways has the modern impetus for development, beginning in the nineteenth century and reaching its current intensity in the mid-twentieth, shifted ideas and practices of sustainability in both environmental and social terms? And, more broadly, to what extent does the notion of development help us explain the historical relationship between humans and the environment?
GLST 26383. Mapping Global Chicago Research Lab: Environmental Justice and Diaspora. 100 Units.
Mapping Global Chicago is a collaborative, interdisciplinary undergraduate research initiative investigating the idea of the “global city.” This year, we will investigate the relationships that people have with nature. In particular, we will ask: How do the environmental injustices that immigrants may have faced in their regions of origin compare to the ones they may face here in the diaspora of Chicago? How does facing environmental injustice impact people’s relationships with land and nature? What are the environmental justice issues in people’s regions of origin and in Chicago? Why do those issues exist? We will be working in partnership with the community organization Semillas y Raíces, whose mission is committed to building community and healing trauma through Indigenous practices, including gardening. Students from across disciplines are encouraged to participate in this lab. The lab has been student-designed and will take shape according to diverse student interests and skill sets, including but not limited to ethnographic fieldwork, interviews, surveys, Geographic Information Science, and data science. Working collaboratively, students will produce public scholarship to be featured on the Mapping Global Chicago website (https://mappingglobalchicago.rcc.uchicago.edu/). This course may be repeated for credit.
GLST 26388. Food Justice and Biodiversity in Latin America. 100 Units.
This course asks how the relationships between food production and consumption, economic justice, and biodiversity have changed over the last century in Latin America and the Caribbean. As a region known both for its ecological diversity and as a producer of tropical foods regularly consumed in the United States, plantation-style agriculture has often undermined its celebrated biodiversity. In centering the role of workers and consumers, this course considers the layered relationships- ecological, social, political, economic and cultural-between the production and consumption of food from Latin America and the Caribbean. In Autumn 2022, the course will also engage questions of food justice and biodiversity in the Chicagoland area and in particular among Latine/x com
GLST 26660. Global Studies and Religion. 100 Units.
Islam, Buddhism, Hinduism, and Christianity have all flourished in the contexts of neoliberal capitalism, mass migration, and online communities. While many predicted that globalization would bring a wave of secularization, it has actually given rise to a global revival of religious life and religious institutions. This undergraduate seminar seeks to understand this phenomenon through a series of case studies of globalized religions in China, Indonesia, India, Nigeria, Italy, and the US. These case studies will highlight historical through-lines from colonization to globalization, ethnographic data of religious motivations and belonging, and social scientific theory of diaspora and nationalism. This course is tailored for Global Studies and Religious Studies majors or double majors, but all undergraduates are welcome.
GLST 26674. The Global Black Panther Party. 100 Units.
In America, the Black Panther Party and its leaders, like Fred Hampton in Chicago, are famous for their revolutionary fight against white supremacy and their violent suppression by US government forces. But what does a Global Studies approach teach us about the Black Panthers? This seminar explores how the Black Panther Party’s worldwide networks impacted global understandings of politics, race, and religion. Our readings examine a series of comparative case studies, including the Dalit Panther Party in India, the Mizrahi Black Panther Party in Israel, and the Polynesian Panthers in New Zealand. We analyze primary sources, such as the various Panther Parties’ publications, their mainstream press coverage, and their pop cultural representations, like Ta-Nehisi Coates’ Black Panther graphic novel and the film Black Panther: Wakanda Forever. In this course, students learn the global Black Panther Parties’ roles in reshaping worldwide conceptions of race, caste, and religion through their encounters with the Nation of Islam, Hindu Nationalism, Zionism, and Indigenous rights. No prior knowledge or coursework is required.
GLST 26801. The Global Urban. 100 Units.
This course was conceived with the aim of “globalizing” urban scholarship. To this end, we will highlight different urban trajectories and forms and different ways of being urban around the world. We will focus on urban experiences in the Global South and in Southeast Asia particularly. We will spend the first week of the course discussing how and why Southern cities are different. We will talk about their explosive growth in the twentieth century, the precarious nature of urban employment, informal settlement as a major urban form, the housing divide as a social structure distinct to such cities, class formation, economic and spatial restructuring under neoliberalism, and the nature of urban citizenship. We will spend the second week examining two very different cases: Manila and Phnom Penh. In the third week, we will focus exclusively on Hong Kong, and students will be tasked with conducting their own urban fieldwork.
GLST 26802. Epic Religion: From the Ramayana to Game of Thrones. 100 Units.
What can epic literature and media teach us about religion? In this introductory seminar, students explore answers to this question, focusing on the ways epics dramatize the human relationship to divinity. We read the epics through the relationships of its central characters-humans, heroes, and gods. By following the winding quests and gory battles of these narratives, students examine how epics present various forms of human-divine relationships-transactional, intimate, inspirational, and manipulative. We employ a comparative approach to the genre; our readings originate in different world regions and historical periods-from ancient India and Greece to West Africa, England, and the contemporary US. We will read these texts closely and examine how they reflect particular views of the human condition within religious worldviews. Considering the contexts of post-colonization, nationalism, and globalization, we analyze how mass media-comic books, TV series, films, and social media-shape and spread those views to new popular audiences.
GLST 26807. The Science, History, Policy, and Future of Water. 100 Units.
Water is shockingly bizarre in its properties and of unsurpassed importance throughout human history, yet so mundane as to often be invisible in our daily lives. In this course, we will traverse diverse perspectives on water. The journey begins with an exploration of the mysteries of water’s properties on the molecular level, zooming out through its central role at biological and geological scales. Next, we travel through the history of human civilization, highlighting the fundamental part water has played throughout, including the complexities of water policy, privatization, and pricing in today’s world. Attention then turns to technology and innovation, emphasizing the daunting challenges dictated by increasing water stress and a changing climate as well as the enticing opportunities to achieve a secure global water future.
GLST 27305. Haj to Utopia: Race, Religion, and Revolution in South Asian America. 100 Units.
With the election of Kamala Harris to the office of Vice President in the 2020 election, it would appear that Americans of South Asian descent find themselves nearer than ever to the center of U.S. political power. But what if one narrated the history of South Asian Americans not according to their inevitable embrace of imperialist politics, economic and cultural capital, but as fraught subjects of a settler colonial regime? What are the alternative futures, of life, love, and liberation, imagined by transnational revolutionaries? How does the politics of immigrant identity operate at the nexus of race and caste? How does religion index race in the eyes of the surveillance state? How do South Asian histories of migration prefigure the mass displacements, border enforcements, and unequal labor conditions that have defined the politics of globalization in the 21st century?
GLST 27321. Legal Borderlands: Spaces of Exception in US History. 100 Units.
The periphery of the United States is not only made up of physical borderlands but also of legal interstitial zones, places that test the reach of American sovereignty. This discussion-based seminar will look at places where American law bumps up against other defining markers, the contact zones that challenge the prevalent legal paradigms. We will examine how these areas define what constitutes an American; how the government makes specific identities within its jurisdiction visible and invisible. Topics we will cover include: statelessness and denaturalization, American extraterritorial courts in China, gender and sexuality under the law, outlawing “coolies,” the insular cases and citizen-subjects, and Guantanamo Bay, not to mention the making and unmaking of physical borderlands around the United States.
GLST 27552. Race, Religion, and Emancipation. 100 Units.
In this course we will interrogate the complex relationship between race, religion, and emancipation in the modern period. Drawing on both historical and philosophical approaches, we will ask: What is emancipation, and who is it for? How has emancipation been articulated in relation to religion, and how has this relationship revealed complications in modern ideas of freedom? How has religion functioned as a vehicle for racialization, and how has it been racialized itself? Is religion an impediment to freedom or a means for its actualization? Beginning in the European Enlightenment, we will consider these questions in relation to two distinct, though (crucially) related sites: Jewish emancipation in 18th and 19th century Europe, and Black emancipation in the United States. In doing so, we will treat the relationship between religion, race, and emancipation as a central tension of the modern period, the continuing importance of which has significant consequences for liberatory intellectual and political movements in the present. Readings will include philosophical, historical, and theological approaches by authors including Immanuel Kant, Karl Marx, W.E.B. DuBois, Saidiya Hartman, and James Cone. No prior knowledge is required, though students with background knowledge in race and ethnic studies, religious studies, and philosophy may find it helpful.
GLST 27600. Beyond Ferrante: Italian Women Writers Rediscovered and the Global Editorial Market. 100 Units.
In this class we read selected works from some of the most influential Italian women writers who are not named Elena Ferrante. Some of these writers contributed to the cultural and literary background that produced Ferrante as well. Others can be seen as Ferrante’s peers and even heirs. The remarkable global success of Ferrante’s work has created the so-called “Ferrante effect.” Both in Italy and abroad, editors and scholars are finally paying attention to long overlooked Italian women writers. We will explore this trend of reissues, new publications, and new translations. How has the Ferrante effect recast our assumptions about literary value? Can restorative justice take place within the global editorial market? Is it legitimate to speak about an editorial affirmative action? What is the relationship between Italian periphery and the dominant literary empire? Among the authors we will read are classics–such as Elsa Morante, Natalia Ginzburg, and Anna Maria Ortese–but also new and overlooked voices–such as Fabrizia Ramondino, Fausta Cialente, Paola Masino, Brianna Carafa, Claudia Durastanti, and Veronica Raimo.
GLST 27601. Women and Islam. 100 Units.
This course is an introduction to the field of women, gender and Islam. We will examine the literature on Islamic legal, historical, Quranic and sacred textual constructs of women as well as critically explore the lived realities and experiences of Muslim women living in Muslim-majority societies and in the west. In centering the work of Muslim feminist scholars, students will gain an understanding of the contemporary debates around women’s rights, sexuality, roles, responsibilities and gender relations in the context of Islamic law and the hadith literature. The discursive constructions and social realities of Muslim women are critically examined through historic and literary representations, ethnographic accounts, human rights discourses, sexual politics and secular and Islamic feminism(s). Moreover, this course situates Muslim women as complex, multidimensional actors engaged in knowledge production and political and feminist struggles, as opposed to the oppressed, victim-centered images that have regained currency in the representation of Muslim women in the post 9/11 era.
GLST 27617. Introduction to Global Catholicism. 100 Units.
With over a billion adherents, Catholicism is both the largest Christian denomination and a global religious tradition. This course introduces students to multiple ways Catholicism shapes the moral and political commitments of believers and how it informs politics and the larger society. How does the Catholic church, at once centralized and internally diverse, exist as a multilingual and multicultural community? How has Catholicism responded to increasingly secularized cultures in industrialized nations? What place do religious beliefs have in the public sphere? We will examine the different ways Catholics approach these moral, social, and theological questions and how their answers shape and are shaped by their cultural locations. No previous coursework is required to enroll.
GLST 27656. Pilgrimage, Voyage, Journey. 100 Units.
Travel is fatal to prejudice, bigotry, and narrow-mindedness “Adventure is worthwhile in itself “To travel is to live In “Pilgrimage, Voyage, Journey,” we interrogate and complicate these kinds of platitudes, examining claims about the nature and possibilities of travel in its many iterations. Throughout the quarter, we ask why people travel, what might be gained or lost by traveling, what is unique to the experience of travel, and, ultimately, whether or not we should travel. We draw from memoir, fiction, film, and contemporary journalism as we consider claims about the effects of travel on travelers, non-travelers, local communities, and the world at large. We think about links between conceptions of travel and broader historical and social structures, considering the histories of class-exclusive travel, ways that colonialism has shaped travel, and the ethics of travel with respect to its impact on both local communities and the environment. Central to our inquiry is an examination of claims about both the religious value or potential of travel – including those found in accounts of pilgrimages and monastic journeys – and the ways that travel can often become linked to ideas of the “spiritual.”
GLST 27659. Parties and Feasting in/as Religion. 100 Units.
Are parties and feasts-a quinceañera, a rave, Thanksgiving dinner-sacred or secular? How do we know, and how can we describe and analyze their religious significance? In this course, we will survey parties, feasts, and festivals from antiquity to the present. Topics will include sacrifice and communal meals, drinking and (divine) hangover cures, dance and communal ecstasy, pilgrimage (Mecca and Burning Man), party-associated violence, and the ethics and power dynamics of partying. Students will become familiar with selected texts (all in translation) from ancient Near Eastern, Greek, and Roman sources to modern journalism and ethnography of Islamic pilgrimage. We will also consider material evidence of parties and feasts ancient and modern (trash!). Students will begin to analyze these events comparatively and as ritual. Along the way, we will briefly consider difficulties for such analysis and/or for material studies of religion. No prior knowledge of texts, languages, or periods is assumed or required, but those enrolled must have previously attended at least one party or feast.
GLST 27713. Israel and American Jewry: Peoplehood, Religion, and Politics. 100 Units.
Israel and North America currently constitute the two leading centers of Jewish demography, identity and existence. Broadly speaking, they represent the two major Jewish responses to modernity – Zionism as a form of modern nationalism on the one hand, and integration into a liberal western society and body politic on the other. Their relations respond to this initial divide, while at the same time trying to coalesce a collective notion of Jewish peoplehood, based on culture, identity and a sense of a shared history and fate. The aim of this course is to learn more about the emergence of these two centers, and then explore the past, present and future of their relations. In recent years, the issue of religion has emerged as a crucial factor in Israel-Diaspora relations, especially in relation to the Jewish center in North America. The historical development of progressive Jewish strands in the United States, together with the fundamental changes in the religious makeup of Jewish society and the perception of the political role of religion in the state of Israel, have led to tension and strife regarding such issues as religious praxis, social identity and the public sphere. Religion with therefore be the main theme through which the relations will be explored, both historically and in relation to current affairs and issues.
GLST 27721. Race and Religion: Theorizing Blackness and Jewishness. 100 Units.
Founded on ideals of universalism, pluralism and secularism, France and the United States are fraught with contradictions when it comes to race and religion. Which religions are accepted? Which religions are suspect? Is it minority that defines the difference-or only particular kinds of minority, such as race? To untangle the intersections of race and religion, we will examine Blackness and Jewishness as they are represented in political polemic, fiction, memoir and philosophy from the 1960s to the present. This course introduces students to the foundational concepts for the critical study of race and religion through exploring the constructions of Black and Jewish identity. We will examine the contradictions of secular politics and culture in France and the United States, and discuss how religion, race, and intersecting categories such as gender and sexuality, can become tools of critique. Readings include works by thinkers such as Césaire, Fanon, Memmi, Levinas and Foucault, along with literary classics by Nella Larsen and Sarah Kofman, and contemporary critical essays by Judith Butler, Christina Sharpe and Talal Asad. Throughout this course, we will examine how the concepts of race and religion are key components of the political, philosophical and ethical projects of these authors. No prerequisite knowledge of critical theory, or this historical period, is expected.
GLST 28092. Nations and Nationalism. 100 Units.
What is a Nation? How do nations come into being? What does it mean to be a part of a national group? These questions will be explored over the quarter through close readings and discussions of both classical theories of nationalism as well as the critiques that have been leveled against them. Studying both classical and contemporary approaches to nationalism, the class will consider how scholars have grappled with the from whence and how a nationalism over time. Over the course of the quarter we will critique ideas of nationalism; consider the efficacy of nation and nationalism as categories of analysis; and will use cases from post-Soviet and post-socialist spaces to ground our discussions in the later part of the quarter, exploring narrative, performative, and material aspects of nationalism in the contemporary period.
GLST 28447. It’s the End of the World as We Know It: Apocalyptic Literature and Millenarian Movements. 100 Units.
The “end of the world” has been a matter of fascination for human beings for thousands of years. This course takes a cross-cultural approach to the study of texts and movements concerned with the end times, traditionally called “apocalyptic” and “Millenarian.” We will focus on three major aspects of these movements: the historical and cultural circumstances in which they arose, the institutions and traditions that served as their foundations, and finally their theological and political principles, including how they dealt with failed expectations. We will cover a wide range of contexts, including Roman-occupied Judea during the first century CE, the Xhosaland of southern Africa in the mid 19th century, and the rise of QAnon in the 21st century United States. No prerequisite knowledge of the historical periods or religious traditions examined required.
GLST 28612. The Global Revolt Against Liberalism. 100 Units.
Is liberalism in crisis? Only ten years ago, the ideology that won the Cold War seemed to reign supreme. Values such as individualism, free enterprise, representative government, and religious tolerance, were seen as more than hallmarks of order, but the very goals to which every nation should aspire. Since then, however, in the United States and across the globe, the liberal consensus has been challenged by populists, socialists, religious traditionalists, and others. Some have protested the close relationship between liberalism and capitalism. Some objected to liberalism’s breakup of “organic” ethno-religious communities. And some maintained that liberalism is no more than Western imperialism with a human face. What happened? Were these revolts mere setbacks on the long ‘arc of history’? Or were they, rather, a reflection of a deep philosophic unease with the very premises of modernity? Is this the end of the liberal world order? What will replace it? And what is the role of religion in the contemporary political imagination? This class will combine readings in political theory, the philosophy of history, and current events, to understand better these criticisms and gain some perspective on our present discontents. No prior knowledge is required.
GLST 28753. The Transnational Refugee Regime. 100 Units.
The right to flee persecution and seek international protection has been codified in international Human Rights and customary law. This course will examine the contemporary transnational refugee regime that has developed around and been informed by this particular rights discourse, particularly in the aftermath of WWII. We will examine various transnational conventions and bodies intended to protect the persecuted, proposed de jure and de facto durable solutions for refugees, and how individuals and communities experience these structures during and after displacement. We also investigate the ways that the transnational refugee regime and its partners (such as NGOs and civil society organizations) are deeply imbricated in broader global power structures and dynamics, creating protections “gaps” and potential rights violations. Specific refugee case studies from around the world will be surveyed in order to contextualize and ground these inquiries.
GLST 28980. There’s an App for That: Religion in the Digital Age. 100 Units.
Can you sit shiva (a Jewish mourning ritual) via Facetime? Is Christian communion really communion if the wafer is made of pixels? Can religious communities experience a feeling of sacred togetherness if its members only get together online? How does online worship change the kinds of religious people we are or may become? This course explores such questions and others that arise out of the relationship between religion and digital media. We will read theories about religious ritual; religion, space, and place; and religion and embodiment to think through what happens when religion leaves the material sphere and “goes online.” We will partner these theories with scholarly reflections on how one is able to study religion on the internet, attending to some of the many conceptual, logistical, and ethical issues that arise when we do. Once we have a grasp of scholarly reflections on digital religion, we will put them into conversation with data from apps, blogs, websites, digital games, streaming events, and online message boards to test their ideas and to ask and answer our own questions. In keeping with the themes of the course, our final assignment will be the creation of a collaborative digital project. There are no prerequisites for this course and no background in Religious Studies or digital technology is required.
GLST 29091. Law and Political Economy. 100 Units.
How is the global economy governed? Through what institutions, legal mechanisms, and norms? What role do Anglo-American law, international law, and other legal regimes play in the flow of capital, goods, and people across state borders? Seeking to answer these questions, this three-week intensive course draws from history, law, economics, political science, and political philosophy in order to both understand the development of global economic governance over time and critically assess what paths it might take in the future.
GLST 29700. Reading/Research: Global Studies. 100 Units.
This is a reading and research course for independent study not related to BA research or BA paper preparation. Note/Prerequisite: College Reading and Research Course form required, along with consent of instructor and program director.
GLST 29800. BA Thesis Seminar I. 100 Units.
This weekly seminar, taught by GLST faculty is designed to aid students in their thesis research. Students are exposed to different conceptual frameworks and research strategies. Students must have approved topic proposals and faculty readers to participate in the seminar.
GLST 29801. BA Thesis Seminar II. 100 Units.
This weekly seminar, taught by GLST faculty, offers students continued BA research and writing support. Students present drafts of their work and critique the work of their peers.
GLST 29900. BA Thesis: Global Studies. 100 Units.
This is a reading and research course for independent study related to BA research and BA thesis preparation. Note/Prerequisite: College Reading and Research Course form required, along with consent of instructor and program director.
Chicago Pre Med Majors – History, Philosophy, and Social Studies of Science and Medicine
Program of Study
The BA program in the History, Philosophy, and Social Studies of Science and Medicine (HIPS) is designed for College students interested in studying science in terms of its historical development, conceptual structure, and social role. Students in the program must do sufficient work in one or more sciences to acquire a sound foundation for studying the nature of science. After securing this basis, they are expected to gain an understanding of how science arose, as well as how the content of scientific thought has changed and is changing, because of both its own internal dynamic and its interaction with the larger society in which it is embedded.
The HIPS program is designed to make possible the study of a wide range of social, historical, and conceptual issues relating to science. Students completing the program follow a number of different careers. Some pursue graduate study in the history and philosophy of science or in some field of science. Others find the program valuable preparation for the study of medicine, law, public policy, or science journalism. More generally, the goal of the program is to provide students with a sound basis on which to interpret and evaluate science and science policy. Some students choose to construct a degree program combining the requirements for the HIPS major with those for a major in the physical or biological sciences. Others, having met the HIPS program requirements, use electives to broaden their liberal arts education.
Students in other fields of study may also complete a minor in HIPS. Information follows the description of the major.
Program Requirements
Elements of the Curriculum. The curriculum of the program contains five principal elements:
1. The Foundation. All students must:
a. complete an approved sequence that fulfills the biological sciences general education requirement;
b. complete the general education requirement in the physical sciences with a physics sequence (PHYS 12100-12200 General Physics I-II or equivalent) or a chemistry sequence (CHEM 11100-11200 Comprehensive General Chemistry I-II, CHEM 10100 Introductory General Chemistry I and CHEM 10200 Introductory General Chemistry II, or equivalent), or have earned a score of 5 on the AP Chemistry or Physics test or a score of 4 or 5 on the AP Physics C Mechanics and E&M test;
c. complete a calculus sequence (MATH 13100-13200 Elementary Functions and Calculus I-II or higher), or have earned a score of 5 on the AP Calculus BC test;
d. complete three courses on the origins and development of science in the West: one course in each of the following three chronological periods: ancient, early modern, and modern.
2. Advanced Science. In addition to the science courses typically taken as part of the general education requirements, students are expected to take three courses in science, social sciences, or mathematics beyond the introductory level. They select these advanced courses according to their special aims, their area of concentration, and the subject of their bachelor’s thesis.
3. Areas of Concentration. All students in the program determine an area of concentration in the anthropology, ethics, history, philosophy, or sociology of science and medicine. In consultation with the program director and their program adviser, students select five courses to constitute this concentration area. For example, some students may be particularly interested in the intellectual and social interactions between changing scientific knowledge and institutions, on the one hand, and evolving social institutions, on the other; a second group may be concerned with either epistemological issues related to the growth of science or moral and political problems attending the employment of technology; and a third group may wish to emphasize the study of science as a social or cultural activity.
4. Tutorials. Students are required to take two tutorial courses; this is typically done early in their program. With a specific focus that changes each year, these tutorials are small classes (from three to ten students) that emphasize discussion and writing. An updated list of courses is available on the Fishbein Center website or at registrar.uchicago.edu/classes.
5. Bachelor’s Thesis and Junior Seminar. Third-year students enroll in a designated one-quarter seminar (HIPS 29800 Junior Seminar: My Favorite Readings in the History and Philosophy of Science) that deals with general aspects of history, philosophy, and social studies of science and medicine. In Spring Quarter of their third year, students must discuss their proposal for their bachelor’s thesis with the program director. In consultation with the program director, students then sign up for a reading and research course (HIPS 29700 Readings and Research in History, Philosophy, and Social Studies of Science and Medicine) with an appropriate faculty member. In their fourth year, this research course should lead to a bachelor’s thesis (HIPS 29900 Bachelor’s Thesis) that integrates each student’s academic studies, bringing them to bear on a significant question related to some historical, conceptual, ethical, or social aspect of science. Fourth-year students also enroll in a two-quarter HIPS 29810 Bachelor’s Thesis Workshop, which is comprised of meetings that focus on organizing, researching, writing, and revising the thesis.
Summary of Requirements
GENERAL EDUCATION | ||
Three courses: one from each of the following chronological periods: | 300 | |
Ancient: HIPS 18301
|
||
Early Modern: HIPS 18400-18403
|
||
Modern: HIPS 18500-18507
|
||
An approved sequence that fulfills the biological sciences general education requirement | 200 | |
One of the following sequences: | 200 | |
CHEM 10100
& 10200 |
Introductory General Chemistry I and Introductory General Chemistry II (or equivalent) * |
|
CHEM 11100-11200
|
Comprehensive General Chemistry I-II (or equivalent) * | |
PHYS 12100-12200
|
General Physics I-II (or higher) * | |
MATH 13100-13200 | Elementary Functions and Calculus I-II (or higher) * | 200 |
Total Units | 900 |
MAJOR | ||
Three courses in science, social sciences, or mathematics beyond the introductory level | 300 | |
Five courses in an area of concentration | 500 | |
Two tutorials | 200 | |
HIPS 29700 | Readings and Research in History, Philosophy, and Social Studies of Science and Medicine | 100 |
HIPS 29800 | Junior Seminar: My Favorite Readings in the History and Philosophy of Science | 100 |
HIPS 29900 | Bachelor’s Thesis | 100 |
HIPS 29810 | Bachelor’s Thesis Workshop | 100 |
Total Units | 1400 |
* | Credit may be granted by examination. |
Examples of Concentrations
The following are meant to illustrate areas of concentration. They are not prescriptive, only suggestive. For the particular courses that might constitute their area of concentration, students should consult with the director of the program, examine this course catalog, and visit registrar.uchicago.edu/classes.
History and Philosophy of Biological Science
HIPS 23600 | History and Theory of Human Evolution | 100 |
BIOS 29321 | Problem of Evil: Disease? | 100 |
HIPS 23900 | Biological and Cultural Evolution | 100 |
HIPS 25801 | Evolutionary Theory and Its Role in the Human Sciences | 100 |
HIPS 27860 | History of Evolutionary Behavioral Sciences | 100 |
Total Units | 500 |
Philosophy of Science
HIPS 22000 | Introduction to Philosophy of Science | 100 |
HIPS 25104 | History and Philosophy of Biology | 100 |
HIPS 22708 | Planetary Britain, 1600-1900 | 100 |
HIPS 24901 | Darwin’s “On the Origin of Species” and “The Descent of Man” | 100 |
HIPS 27515 | Scientific and Humanistic Contributions to Knowledge Formation | 100 |
Total Units | 500 |
History of Medicine and Medical Ethics
HIPS 12103 | Treating Trans-: Practices of Medicine, Practices of Theory | 100 |
HIPS 21609 | Topics in Medical Ethics | 100 |
HIPS 24103 | Bioethics | 100 |
HIPS 25900 | Darwinian Medicine | 100 |
HIPS 27300 | Medicine and Culture | 100 |
Total Units | 500 |
Admission
To be eligible for admission, students should have completed at least two of the four foundation course sequences listed in the preceding section and should have maintained a 3.2 GPA or higher in previous course work. Students should apply for admission no later than Autumn Quarter of their third year to the director of the program. The director advises students about the requirements, arranges a preliminary plan of study, and discusses scheduling conflicts and special cases. Thereafter, a student chooses, in consultation with the director, a BA adviser from the staff.
Honors
Students who meet the following criteria are considered for graduation with honors: (1) overall GPA of 3.3 or higher, (2) completion of a bachelor’s thesis of A quality, and (3) a majority vote by the faculty in favor of honors
Grading
Students majoring in HIPS must receive quality grades in all courses meeting the requirements of the degree program, except HIPS 29810 Bachelor’s Thesis Workshop, which must be taken for Pass/Fail grading. Nonmajors may take courses for Pass/Fail grading with consent of instructor.
Advisers
Drawn from many parts of the University, those listed in the Faculty Section of the HIPS program have direct responsibility for admitting students, formulating curriculum, and advising students.
Minor Program in History, Philosophy, and Social Studies of Science and Medicine
Students in other fields of study may complete a minor in HIPS, which offers students who are majoring in science the opportunity to gain an understanding of the conceptual, historical, and social contexts in which their disciplines are situated.
The minor requires a total of six courses. Courses in the minor (1) may not be double counted with the student’s major(s) or with other minors and (2) may not be counted toward general education requirements. Courses in the minor must be taken for quality grades, and more than half of the requirements for the minor must be met by registering for courses bearing University of Chicago course numbers.
Students should take at least two courses focusing on the origins and development of science in the West (one course in each of two of the following chronological periods: ancient, early modern, and modern) to meet the general education requirement in civilization studies. Additional courses in these sequences that are not used to meet the general education requirement can count toward courses required for the minor.
Students must complete one tutorial course.
The remaining five courses for the minor program should constitute an area of concentration in the anthropology, ethics, history, philosophy, or sociology of science and medicine. Students select the courses that constitute this concentration in consultation with the program director and their program adviser.
Students who elect the minor program in HIPS should meet with the program director before the end of Spring Quarter of their third year to declare their intention to complete the program. The director’s approval for the minor program should be submitted to the student’s College adviser by the deadline above on the Consent to Complete a Minor Program form obtained from the College adviser or online.
The following groups of courses would satisfy the requirements for a minor in HIPS. They are only meant to illustrate possible plans of study; they are not prescriptive.
Group 1
Tutorial: | 100 | |
HIPS 29641
|
Tutorial: Medical Ethics in the Hospital and Clinic | |
Concentration in History and Philosophy of Biology: | 500 | |
HIPS 22700
|
Philosophical Problems in the Biological Sciences | |
HIPS 23600
|
History and Theory of Human Evolution | |
HIPS 23900
|
Biological and Cultural Evolution | |
HIPS 25801
|
Evolutionary Theory and Its Role in the Human Sciences | |
BIOS 29321
|
Problem of Evil: Disease? | |
Total Units | 600 |
Group 2
Tutorial: | 100 | |
HIPS 29642
|
Tutorial: The Science and Philosophy of Artificial Intelligence | |
Concentration in History of Medicine and Medical Ethics: | 500 | |
HIPS 12103
|
Treating Trans-: Practices of Medicine, Practices of Theory | |
HIPS 21400
|
Intro To Medical Ethics | |
HIPS 24103
|
Bioethics | |
HIPS 25900
|
Darwinian Medicine | |
HIPS 27300
|
Medicine and Culture | |
Total Units | 600 |
HIPS 18301, HIPS 18400–18403, and HIPS 18500–18507 Science, Culture, and Society in Western Civilization
These courses focus on the origins and development of science in the West. They aim to trace the evolution of the biological, psychological, natural, and mathematical sciences as they emerge from the culture and social matrix of their periods and, in turn, affect culture and social. In order to satisfy the general education requirement in civilization studies, students must take a course in two or three of the following chronological periods: ancient (numbered HIPS 18300), early modern (HIPS 18400–18403), and modern (HIPS 18500–18503). Taking these courses in sequence is recommended but not required. Only one course per category may count toward the requirement unless special approval is granted.
HIPS 18301. Science, Culture, and Society in Western Civilization I: Ancient Science and Medicine. 100 Units.
This undergraduate course represents the first quarter of the Science, Culture, and Society in Western Civilization general education sequence. Taking these courses in sequence is recommended but not required. This quarter will focus on science and medicine in societies across the ancient world. Students will gain an introduction to methods of healing and knowing practiced in Africa, Asia, Europe, and North and South America before 1500. Students will also acquire an understanding of the many questions that historical research raises for our own understanding of contemporary medicine and science, and some of the methods that historians use to bring the past to light. Topics include ancient surgery and pharmacology; the manifold meanings of “disease;” the function and recognition of “the body,” of “mind,” and of perception; how to acquire “good” and “true” knowledge; continuity and discontinuity of beliefs and practices over time and place; and exchange of ideas and materials across cultures, among other subjects.
HIPS 18401. Science, Culture, and Society in Western Civilization II: History of Medicine 1500 to 1900. 100 Units.
This course examines the theory and practice of medicine between 1500 and 1900. Topics include traditional early modern medicine; novel understandings of anatomy, physiology, and disease from the Renaissance on; and new forms of medical practice, training, and knowledge-making that developed in the eighteenth and nineteenth centuries.
HIPS 18504. Science, Culture, and Society in Western Civilization III: the Computational Life. 100 Units.
In SCSIII: The Computational Life, we consider the rise of computation and computers from ancient, analog efforts through state calculations and steampunk computers of the 19th Century to the emergence of digital computers, programming languages, screens and personal devices, artificial intelligence and neural networks, the Internet and the web. Along the way, we explore how the fantasy and reality of computation historically reflected human and organizational capacities, designed as prosthetics to extend calculation and control. We further consider how computers and computational models have come to influence and transform 20th and 21st Century politics, economics, science, and society. Finally, we examine the influence of computers and AI on imagination, structuring the utopias and dystopias through which we view the future. Students will read original texts and commentary, manipulate analog and digital hardware, software, networks and AI, and contribute to Wikipedia on the history and the social and cultural implications of computing.
HIPS 18505. Science, Culture, and Society in Western Civilization III: Histories of the Bomb. 100 Units.
In the long history of the planet, the years since 1945 have a remarkable and unique geological signature: one left by the creation and testing of atomic weapons, medicine, and energy. This class explores the intellectual, social, economic, and political histories of nuclear research, including topics such as transnational scientific migrations; the Manhattan Project; weapons testing and development; the rise of “Big Science”; postcolonial histories of nuclear development; domestic and international anti-nuclear activism; and ecological and environmental impacts of fallout, waste, and nuclear accidents. Drawing on both primary and secondary sources, we will consider how the story we tell about the history of the nuclear age and the rise of science came to be, and how that story has transformed at different points in the twentieth century.
HIPS 12103. Treating Trans-: Practices of Medicine, Practices of Theory. 100 Units.
Medical disciplines from psychiatry to surgery have all attempted to identify and to treat gendered misalignment, while queer theory and feminisms have simultaneously tried to understand if and how trans- theories should be integrated into their respective intellectual projects. This course looks at the logics of the medical treatment of transgender (and trans- more broadly) in order to consider the mutual entanglement of clinical processes with theoretical ones. Over the quarter we will read ethnographic accounts and theoretical essays, listen to oral histories, discuss the intersections of race and ability with gender, and interrogate concepts like “material bodies” and “objective science”. Primary course questions include: 1.
HIPS 15000. Common-Year Seminar: Science and the State. 100 Units.
The end of knowledge is power,” wrote the English philosopher Thomas Hobbes in 1665. This introductory seminar looks at the intertwining historical relationships between states and the making of scientific knowledge and global political power from the eighteenth century to the present day. In this seminar, we will look at how past societies have wrestled with questions like the place of scientific expertise in different systems of government; the dynamics of state vs. private support for scientific research; and the coproduction of state power and scientific knowledge.
HIPS 15005. Engineered Environments in East Asia. 100 Units.
Environments in East Asia have drastically changed in the twentieth century. Seawalls and cities rose in coastal areas that were previously untouched along Japan’s coast; cement-dams replaced dirt dikes that divided the Han river in the Korean Peninsula; and railroads expanded into far-off regions in China, redefining both cities and hinterlands. These are three archetypal examples of technically complex projects that this course will explore. These industrial and technological projects of a national, regional, or global scale connect past to present and pose questions to our future about climate change, public health crises, and energy anxieties. This class asks what engineered environments are and how they shape our everyday life. We will visit three types of archetypal megaprojects-the railway system, the transformation of ocean space, and the building of dams–in China, Japan, and Korea that have shaped and continue to shape the environments of East Asia, an economically vibrant, politically challenging, and ecologically diverse region, with a deep history and vibrant technological innovations even today. We will discuss the politics and science behind the building of each megaproject, the interconnected history among them, and more importantly, how each project generated its environment, shaped the relationship between human societies and nature, and influences our current understanding of the region.
HIPS 18301. Science, Culture, and Society in Western Civilization I: Ancient Science and Medicine. 100 Units.
This undergraduate course represents the first quarter of the Science, Culture, and Society in Western Civilization general education sequence. Taking these courses in sequence is recommended but not required. This quarter will focus on science and medicine in societies across the ancient world. Students will gain an introduction to methods of healing and knowing practiced in Africa, Asia, Europe, and North and South America before 1500. Students will also acquire an understanding of the many questions that historical research raises for our own understanding of contemporary medicine and science, and some of the methods that historians use to bring the past to light. Topics include ancient surgery and pharmacology; the manifold meanings of “disease;” the function and recognition of “the body,” of “mind,” and of perception; how to acquire “good” and “true” knowledge; continuity and discontinuity of beliefs and practices over time and place; and exchange of ideas and materials across cultures, among other subjects.
HIPS 18401. Science, Culture, and Society in Western Civilization II: History of Medicine 1500 to 1900. 100 Units.
This course examines the theory and practice of medicine between 1500 and 1900. Topics include traditional early modern medicine; novel understandings of anatomy, physiology, and disease from the Renaissance on; and new forms of medical practice, training, and knowledge-making that developed in the eighteenth and nineteenth centuries.
HIPS 18504. Science, Culture, and Society in Western Civilization III: the Computational Life. 100 Units.
In SCSIII: The Computational Life, we consider the rise of computation and computers from ancient, analog efforts through state calculations and steampunk computers of the 19th Century to the emergence of digital computers, programming languages, screens and personal devices, artificial intelligence and neural networks, the Internet and the web. Along the way, we explore how the fantasy and reality of computation historically reflected human and organizational capacities, designed as prosthetics to extend calculation and control. We further consider how computers and computational models have come to influence and transform 20th and 21st Century politics, economics, science, and society. Finally, we examine the influence of computers and AI on imagination, structuring the utopias and dystopias through which we view the future. Students will read original texts and commentary, manipulate analog and digital hardware, software, networks and AI, and contribute to Wikipedia on the history and the social and cultural implications of computing.
HIPS 18505. Science, Culture, and Society in Western Civilization III: Histories of the Bomb. 100 Units.
In the long history of the planet, the years since 1945 have a remarkable and unique geological signature: one left by the creation and testing of atomic weapons, medicine, and energy. This class explores the intellectual, social, economic, and political histories of nuclear research, including topics such as transnational scientific migrations; the Manhattan Project; weapons testing and development; the rise of “Big Science”; postcolonial histories of nuclear development; domestic and international anti-nuclear activism; and ecological and environmental impacts of fallout, waste, and nuclear accidents. Drawing on both primary and secondary sources, we will consider how the story we tell about the history of the nuclear age and the rise of science came to be, and how that story has transformed at different points in the twentieth century.
HIPS 20003. Reading Race. 100 Units.
Before and since Anthropology became a discrete scientific field of study, questions about the biological reality, potential utility and misuse of the concept of race in Homo sapiens have been debated. We will read and discuss a sample of writings by 18th, 19th, and 20th century and contemporary authors who attempted to define human races and those who have promoted or debunked the utility of the concept of race with special attention to it role in retarding social progress, and the extermination and exploitation of some populations and individuals.
HIPS 20205. Race in African History. 100 Units.
This course examines how the category of race has been identified and discussed in African history from the nineteenth century to the contemporary era. The course combines cultural and social history with recent research from the history of science, gender and sexuality studies, and the history of slavery in Islamic Africa to illuminate the debates, actors, and encounters that animate this dynamic field. Students will analyze case studies from across the continent-from Ghana to Sudan to South Africa-while also keeping an eye to transnational debates about difference, diaspora, imperialism, and nationalism. With readings ranging from classics in Pan-African thought to comparative studies of white settler colonialism, this course will highlight the ways in which race has shaped and continues to shape African states and societies. Students will also consider film, literature, music, fashion, and studies of the built environment.
HIPS 20401. Philosophy of Mind. 100 Units.
This is a survey of some of the central questions in the philosophy of mind. These questions include: What is consciousness? How can mental states represent things in the world? How do our minds relate to our bodies? Do we have free will? Can we blame someone for the beliefs or desires she has? What are the emotions? To help us with these questions, we will focus on 20th-century analytic work (by Putnam, Nagel, Searle, Jackson, Dennett, Chalmers, Block, Dretske, and others), but we will also read important historical texts on the nature of the mind by Aristotle, Descartes, and Hume.
HIPS 20567. Introduction to Computational Sociology. 100 Units.
Advances in machine learning, high performance computing, and big data are opening exciting new ways of doing social science. This course introduces students to the burgeoning field of computational sociology, emphasizing both conceptual understanding and hands-on training. The course does not require any prior experience with coding, computer science, or statistics. The only requirement is that students have fluency in high-school mathematics (pre-calculus) and an interest in acquiring computational skills. Students will learn the basics of R and Python, and will gain practical experience with simulation modeling, computational text analysis, and neural networks. This course will pair a practical training in computational methods with a critical examination of how these technologies are being deployed in the real world and their roles in reproducing systems of power and inequality. This class is recommended for students who want a basic introduction to “data science” and who are seeking the conceptual knowledge necessary to participate in current debates over information technology in contemporary society.
HIPS 20574. Sociology Structure and Agency. 100 Units.
The subtitle of this course may very well be How to Think Sociologically. It’s required of sociology majors but open to students majoring in other disciplines, including economics, STEM fields, and the humanities. The aim of the course is to impart a distinctly sociological perspective and equip students with sociological modes of explanation (as opposed to, say, economic or biological ones) in the belief that such a framework will enrich their understanding of the world. Our focus will be on unpacking two fundamental concepts in sociology, social structure and agency, and examining them in relation to one another. We will consult both classical and contemporary sources and discuss real-world applications. While the readings include dense social theory, every effort will be made to make the ideas at stake accessible to a non-specialized audience. The course will be run like a seminar and discussion intensive. It is imperative that students complete the readings on time and participate actively in discussions.
HIPS 20700. Introduction to Logic. 100 Units.
An introduction to the concepts and principles of symbolic logic. We learn the syntax and semantics of truth-functional and first-order quantificational logic, and apply the resultant conceptual framework to the analysis of valid and invalid arguments, the structure of formal languages, and logical relations among sentences of ordinary discourse. Occasionally we will venture into topics in philosophy of language and philosophical logic, but our primary focus is on acquiring a facility with symbolic logic as such.
HIPS 20962. Nature’s Authority. 100 Units.
From ancient times to the present, nature’s authority has been invoked by revolutionaries and reactionaries alike to justify social, political, and economic arrangements made by humans. Despite much trenchant philosophical criticism, nature seems to an irresistible resource in very human debates about power, work, sex, money, and much else. This seminar asks why this tradition has been so persistent and pervasive and where nature’s authority comes from. Readings will emphasize primary sources, from Aristotle to contemporary environmentalists. This course will meet two times per week for 3 hours, during the 1st five weeks of the quarter, March 28 – April 27.
HIPS 21000. Introduction To Ethics. 100 Units.
In this course, we will read, write, think, and talk about moral philosophy, focusing on Immanuel Kant’s Groundwork of the Metaphysics of Morals and work by John Stuart Mill. We will work through our texts with care. Neo-Kantianism is a prominent contemporary form of moral theory. We will use Kant to develop a critique of neo-Kantianism as we go along. We will look at influential criticisms of utilitarianism in the concluding weeks of the term, and we will need to ask ourselves whether either of them applies to the version of utilitarianism developed by John Stuart Mill. (A)
HIPS 21100. Celebrity and Science in Paleoanthropology. 100 Units.
This seminar explores the balance among research, “showbiz” big business, and politics in the careers of Louis, Mary, and Richard Leakey; Alan Walker; Donald Johanson; Jane Goodall; Dian Fossey; and Biruté Galdikas. Information is gathered from films, taped interviews, autobiographies, biographies, pop publications, instructor’s anecdotes, and samples of scientific writings.
HIPS 21108. Time After Physics. 100 Units.
This course provides a historical survey of the philosophy of time. We begin with the problems of change, being and becoming as formulated in Ancient Greece by Parmenides and Zeno, and Aristotle’s attempted resolution in the Physics by providing the first formal theory of time. The course then follows theories of time through developments in physics and philosophy up to the present day. Along the way we will take in Descartes’ theory of continuous creation, Newton’s Absolute Time, Leibniz’s and Mach’s relational theories, Russell’s relational theory, Broad’s growing block, Whitehead’s epochal theory, McTaggart’s A, B and C theories, Prior’s tense logic, Belnap’s branching time, Einstein’s relativity theory and theories of quantum gravity. (B) (II)
HIPS 21406. Britain 1760-1880: The Origins of Fossil Capitalism. 100 Units.
Britain rose to global dominance after 1760 by pioneering the first fossil-fuel economy. This course explores the profound impact of coal and steam on every aspect of British society, from politics and religion to industrial capitalism and the pursuit of empire. Such historical investigation also serves a second purpose by helping us see our own fossil-fuel economy with fresh eyes through direct comparison with Victorian energy use. How much does the modern world owe to the fossil capitalism of the Victorians? Assignments include short essays that introduces students to primary sources (texts, artifacts, and images) and a longer paper that examines in greater depth a specific aspect of the age of steam.
HIPS 21407. The Vocation of a Scientist. 100 Units.
Max Weber wrote that to be a scientist one needed a “strange intoxication” with scientific work and a “passionate devotion” to research as a calling. And yet, such passion seemed to conflict with the ideal of value-neutral inquiry. This class considers the vocation of science since the turn of the twentieth century. What political, economic, and cultural forces have shaped scientific professions in the United States? How are scientists represented in public culture? How was American science experienced during the colonization of the Philippines? By exploring these questions, this class will examine the values and norms that make science into a meaningful vocation.
HIPS 21408. History of Medicine. 100 Units.
This course surveys the history of medicine from the medieval period to the present. How did medicine emerge as a defined body of knowledge? To what extent do diseases and disorders have an independent existence, and to what extent are they cultural constructs? How have social mores-particularly those related to religion, class, nationality, race, and gender-influenced the ways in which health was and is understood and maintained, and illness treated? What does it mean to practice medicine ethically, and how has that changed over time? Topics include the emergence and evolution of the medical profession, the history of medical research and method, the interpretation and treatment of the unhealthy and healthy alike, eugenics, euthanasia, the quest for immortality, and the changing relationship between technology and disease.
HIPS 21409. History of Extraterrestrial Life. 100 Units.
In 2014, the Vatican Radio made a splash when it reported that the pontiff, Pope Francis, condoned the baptism of extraterrestrials-if they so desired it. “Who are we to close doors?” he asked rhetorically. It was both a metaphor for spiritual inclusion and an accurate representation of the modern Vatican’s position on the possibilities of modern astrobiology and the search for extrasolar planets, fields whose rapid growth over the past two decades make serious consideration of extraterrestrial life seem like a uniquely modern phenomena. Its history, however, is in fact many centuries old. In this course we will examine the development of beliefs concerning life in the universe from the sixteenth century to the present. How did historical actors understand the nature, abilities, and location of extraterrestrial life, and its relationship to man and god? We will analyze connections between these beliefs and contemporary political, social, scientific, and religious developments. These include the role of the plurality of worlds in the debates over heliocentrism, its impact and application in the context of deism and social and political freethought, its literary and artistic depictions and use as a tool of satire and social commentary, its influence on natural philosophy, its decline and the subsequent rise of alien conspiracists and their critics, and how and why conceptions of the extraplanetary other took a dark and sinister turn toward the early-to-mid twentieth century.
HIPS 21410. Politics of Technoscience in Africa. 100 Units.
Euro-American discourse has often portrayed Africa as either a place without science and technology or as the home of deep and ancient wisdom. European imperialists used the alleged absence of science and technology as a justification for colonialism while pharmaceutical companies sought out African knowledge about healing plants. In addition to their practical applications, science and technology carry significant symbolic weight in discussions about Africa. In this class, we examine the politics of scientific and technical knowledge in Africa with a focus on colonialism and its aftermath. How have different people produced and used knowledge about the environment, medicine, and technology? What kinds of knowledge count as indigenous and who gets credit for innovation? How have independent African governments dealt with the imperial legacies of science? From the interpretation of archaeological ruins to the design of new medical technologies, this class will examine science and technology as political practice in Africa.
HIPS 21411. Sex, Race, and Empire. 100 Units.
This course surveys how science, race, and gender interacted in the early modern Atlantic world from 1500-1800. We will critically examine how new modes of scientific inquiry brought Africans, Americans, and Europeans into contact and conflict. Along the way, we will ask how, why, and with consequences imperial science created new knowledge claims about human inequality, especially racial and sexual difference. We will draw primarily on British, Iberian, and French imperial agendas in order to track the experiences of men and women from all corners of the Atlantic world, including indigenous peoples, enslaved black Africans, free people of color, and white Europeans. Through a variety of primary and secondary sources, we will uncover European aspirations to curate, control, and exploit the natural world and the agency of subjugated peoples in responding to and resisting these designs. Topics covered include natural history collecting and classification; the invention of racial theory; slavery and maroons; women, gender, and reproduction; consumption; and violence, resistance, and revolution.
HIPS 21413. Sex and Enlightenment Science. 100 Units.
What do a lifelike wax woman, a birthing dummy, and a hermaphrodite have in common? This interdisciplinary course seeks answers to this question by exploring how eighteenth-century scientific and medical ideas, technologies, and practices interacted with and influenced contemporary notions of sex, sexuality, and gender. In our course, the terms “sex,” “Enlightenment,” and “science” will be problematized in their historic contexts using a variety of primary and secondary sources. Through these texts, as well as images and objects, we will see how emerging scientific theories about sex, sexuality, and gender contributed to new understandings of the human, especially female, body. We will also see how the liberating potential of Enlightenment thought gave way to sexual and racial theories that insisted on fundamental human difference. Topics to be covered include theories of generation, childbirth, homosexuality, monstrosities, race and procreation, and hermaphrodites and questions about the “sex” of the enlightened scientist and the gendering of scientific practices.
HIPS 21414. What is Technology? 100 Units.
In the nineteenth century, the word “technology” referred to the science of the useful and industrial arts. While the term is today synonymous with machinery and other material tools, this contemporary usage dates only to the 1930s. A word once used to describe a specialist mode of writing about applied knowledge has come to refer to tools and their use.
HIPS 21419. Indigenous Knowledge and the Foundations of Modern Social Theory. 100 Units.
Indigenous people are often seen as “objects” of social theory; this course considers their role as subjects of social theory-makers of modern knowledge who made foundational contributions to basic ideas about humanity. We will take up three case studies, each of which highlights an indigenous people who unleashed a cascade of fresh thinking: the Australian Aborigines who influenced the ideas of Émile Durkheim and Sigmund Freud; the Native peoples of the Northwest Coast of America who stimulated Franz Boas to reconstruct the concept of culture; and the indigenous peoples of the Trobriand Islands who shaped Bronisław Malinowski’s ideas about gifts, hospitality, and reciprocity. As we will see, much of what we call social theory turns out to rely on a vast archive of nonstate knowledge generated by indigenous intellectuals.
HIPS 22000. Introduction to Philosophy of Science. 100 Units.
We will begin by trying to explicate the manner in which science is a rational response to observational facts. This will involve a discussion of inductivism, Popper’s deductivism, Lakatos and Kuhn. After this, we will briefly survey some other important topics in the philosophy of science, including underdetermination, theories of evidence, Bayesianism, the problem of induction, explanation, and laws of nature. (B) (II)
HIPS 22001. Introduction to Science Studies. 100 Units.
This course provides an introduction to the interdisciplinary study of science, medicine, and technology. During the twentieth century, sociologists, historians, philosophers, and anthropologists raised original, interesting, and consequential questions about the sciences. Often their work drew on and responded to each other, and, taken together, their various approaches came to constitute a field, “science studies.” The course furnishes an initial guide to this field. Students will not only encounter some of its principal concepts, approaches and findings, but will also get a chance to apply science-studies perspectives themselves by performing a fieldwork project. Among the topics we may examine are: the sociology of scientific knowledge and its applications; actor-network theories of science; constructivism and the history of science; and efforts to apply science studies approaches beyond the sciences themselves.
HIPS 22202. We Other Victorians. 100 Units.
This course examines the construction of otherness, difference, and belonging in England during the long Nineteenth Century from a historical perspective. Each week students will study a different “other” by drawing on a variety of primary sources, including novels, autobiographies, government reports, legal documents, private correspondence, newspapers, and scientific publications. Special attention will be paid to how and why emerging social sciences such as anthropology, sociology, and psychology both contributed to and were themselves informed by, (1) broader discussions about cultural ethnicity, biological race, national identity, and modern society; as well as (2) changing conceptions of class, gender, race, religion, and illness. By working historically, students in this course will also develop a conceptual framework for studying otherness that transcends geographic and temporal boundaries. Students will learn about the socio-political, cultural, legal, scientific, and ideological construction of otherness in Victorian Britain while also developing a conceptual framework for studying otherness that transcends geographic and temporal boundaries. This course relies almost entirely on primary sources and is designed to help students develop the skills needed to complete an original research project independently.
HIPS 22204. Science, Governance, and the Crisis of Liberalism. 100 Units.
In the era of “post-truth” it has become common to link a crisis of scientific authority with a crisis of liberalism. Democracies around the world are under threat, this reasoning goes, in part because of an attack on scientific truth. But what does liberalism – as political culture and as a form of governance – need (or want) from science? Depending where you look, the answer might appear to be facts, truth, a model ‘public sphere,’ an ethic of objectivity, tactics for managing risk and uncertainty, or technologies of population management (to name a few). In addition to exploring the complex historical relationship between science and liberalism in the modern era, this course will critically assess how the history of science and the history of political thought have theorized truth and governance. We will examine what models of “coproduction” and “social construction” – nearly ubiquitous in the historiography of modern science – fail to capture about the histories of science and state power. We will also think about how political and intellectual historians’ theories of truth and mendacity in politics might be enriched by more attention to scientific knowledge in both its technical and epistemological forms. This course focuses on 19th- and 20th-century Europe and the United States in global perspective, and readings will draw from political theory, history, economic thought, the natural and human sciences, and critical theory.
HIPS 22205. Taking Back the Land: Anthropology, Geography & Ethnoscience for Land Justice. 100 Units.
In a world of settler property regimes, corporate holdings and national parks, how are communities reclaiming the lands they’ve lost? National parks overturned; indigenous community conservation areas established; food deserts restored with expanding networks of community gardens: the last decade has seen an eruption of opportunities for land justice amidst continuing challenges from ongoing processes of capitalism, colonialism, and climate change. This course offers a wholistic anthropological approach to land justice activism that begins with strategies for building collaborations, before looking at tools to help assert claims over territories and resources, and finally, exploring ways of restoring reclaimed lands with new foodways, forests, and community governance. Alongside critical readings and guest teachings from land justice activists in Southeast Asia and North America, the course will examine how a diversity of citizen science tools are being combined with indigenous, anthropological, geographic, and ecological methods to formulate a toolkit for land justice activism and community land/resource management. From counter mapping territory with remote sensing to effective strategies used to block mining projects; from indigenous conservation planning to guerrilla gardening: this course will explore different approaches to reclaiming lands and resources.
HIPS 22207. The Social History of Alcohol in Early Modern Europe. 100 Units.
This course will examine the multifaceted role that beer, wine, cider, and spirits played in European society and will challenge students to consider how a seemingly familiar commodity was a key component in shaping early modern social relations. It will focus on several major themes that have guided historical inquiry and show how hard drink intersects with and entangles these histories. Major themes will include alcohol and gender relations; state legality and taxation; moral policing; environmental projects and crises; labor and technology; and colonialism. Using both primary and secondary sources will push students to look below the surface to see how drink alternately challenged or reinforced social hierarchies, much as it continues to do in the present time.
HIPS 22310. The Commons: Environment and Economy in Early Modern Europe. 100 Units.
Drawing on case studies from Europe and the Atlantic world, this course will track changes in land use and property rights over the early modern period (ca. 1500-1800), inviting students to reflect on the relationship between natural environments (woodlands, waterways, pasture) and histories of state formation, economic growth, rebellion, and colonialism. Organizing concepts and debates will include the tragedy of the commons, moral economies, sustainability and scarcity, the “organic economy” of the old regime, primitive accumulation, and economic takeoff. Readings will encompass classic works in agrarian, environmental, and social history (i.e., Marc Bloch, E. P. Thompson, Silvia Federici, James Scott, Carolyn Merchant) as well as primary documents and contemporary texts (i.e., More, Bacon, Smith, Paine, Babeuf). We will also reflect on how these histories bear on debates about land use and natural resources in the present day.
HIPS 22708. Planetary Britain, 1600-1900. 100 Units.
What were the causes behind Britain’s Industrial Revolution? In the vast scholarship on this problem, one particularly heated debate has focused on the imperial origins of industrialization. How much did colonial resources and markets contribute to economic growth and technological innovation in the metropole? The second part of the course will consider the global effects of British industrialization. To what extent can we trace anthropogenic climate change and other planetary crises back to the environmental transformation wrought by the British Empire? Topics include ecological imperialism, metabolic rift, the sugar revolution, the slave trade, naval construction and forestry, the East India Company, free trade and agriculture, energy use and climate change.
HIPS 22800. Experiencing Madness: Empathic Methods in Cultural Psychiatry. 100 Units.
This course provides students with an introduction to the phenomenological approach in cultural psychiatry, focusing on the problem of “how to represent mental illness” as a thematic anchor. Students will examine the theoretical and methodological groundings of cultural psychiatry, examining how scholars working in the phenomenological tradition have tried to describe the lived experiences of various forms of “psychopathology” or “madness.” By the end of the course, students will have learned how to describe and analyze the social dimension of a mental health experience, using a phenomenologically-grounded anthropological approach, and by adopting a technical vocabulary for understanding the lived experiences of mental illness (for instance, phenomena, life-world, being-in-the-world, intentionality, epoché, embodiment, madness, psychopathology, melancholia/depression, schizophrenia, etc). In addition, given the ongoing problematic of “how to represent mental illness,” students will also have the opportunity to think through the different ways of presenting their analysis, both in the form of weekly blog entries and during a final-week mock-workshop, where they will showcase their work in a creative medium appropriate to that analysis.
HIPS 24103. Bioethics. 100 Units.
This is a lecture and discussion class that will explore how a variety of philosophic and religious thinkers approach the issues and problems of modern dilemmas in medicine and science in a field called bioethics. We will consider a general argument for your consideration: that the arguments and the practices from faith traditions and from philosophy offer significant contributions that underlie policies and practices in bioethics. We will use a case-based method to study how different traditions describe and defend differences in moral choices in contemporary bioethics. This class is based on the understanding that case narratives serve as another core text for the discipline of bioethics and that complex ethical issues are best considered by a careful examination of the competing theories as work themselves out in specific cases. We will examine both classic cases that have shaped our understanding of the field of bioethics and cases that are newly emerging, including the case of research done at our University. Through these cases, we will ask how religious traditions both collide and cohere over such topics as embryo research, health care reform, terminal illness, issues in epidemics and public health, and our central research question, synthetic biology research. This class will also explore how the discipline of bioethics has emerged to reflect upon such dilemmas, with particular attention to the role that theology and philosophy have played in such reflection.
HIPS 24240. Buddhism and Science: A Critical Introduction. 100 Units.
Buddhism is the only religion able to cope with modern scientific needs.” This quotation, often erroneously attributed to Albert Einstein, prompts the question: Why are such statements about Buddhism so easily taken nowadays as credible and plausible? Currently, it seems no other religion is held as compatible with science as Buddhism: From the recent ‘mindfulness’ craze in psychology and medicine, to the ‘Emptiness’ of quantum physics, Buddhism is uniquely hailed as a ‘rational religion’ whose insights anticipated modern science by millennia. Some even suggest it is not a ‘religion’ at all, but rather a sort of ‘mind-science.’ This course functions as both an introduction to Buddhism and a critical survey of its modern scientific reception. As we explore Buddhism’s relationship to contemporary scientific theories in psychology and physics, we will be guided by questions such as: What methodological principles distinguish the practices of religion and science? What are the different ways they can be brought into relation? Why is Buddhism, in particular, singled out as uniquely scientific? What modern historical factors, like colonialism and secularization, contribute to this contemporary meme? Why does it matter whether Buddhism is compatible with science or not? What, exactly, is at stake in this relationship? And for whom? No prior study of Buddhism or the philosophy of science is expected.
HIPS 24706. Science in the South: Decolonizing the Study of Knowledge in Latin America & the Caribbean. 100 Units.
This seminar will bridge anthropologies and histories of science, technology, and medicine to Latin American decolonial thought. Throughout Latin America, techno-scientific objects and practices, with their presumed origin in the Euro-Atlantic North, are often complexly entangled with neo-imperial projects of development and modernization that elongate social forms of colonization into the present. Technoscience and its objects, however, can also generate new creative, political, and life-enhancing potentials beyond or despite their colonial resonances, or even provide tools to ongoing struggles for decolonization. Together, seminar participants will explore what a decolonial approach to the study of science, technology, and medicine in the Global South, particularly in Latin America, has been and could become and how decolonial theory can inflect our own disciplinary, conceptual, and political commitments as anthropologists of technoscience.
HIPS 24803. History of Sexuality and Sin. 100 Units.
Since Foucault’s groundbreaking work on the History of Sexuality, we have become attuned to the effects of power and the political implications of the science of sexuality. While Foucault’s text has offered a critical avenue to examine the secular state’s administrations of sexuality, it begins with Christianity’s techniques of power based on the confession of one’s sex. The Christian formulation of the relationship between ‘sex’ and ‘sin’ is essential to understanding the techniques of power that connect sexuality, legality, criminality, normality, and transgression in modern secular contexts. In this class, we will begin with the critical questions of the History of Sexuality, then turn to primary texts in order to examine the way ‘sex’ and ‘sin’ became conceptually connected in Christianity, and finally interrogate the effects of this relation for medieval and modern politics. Over the course of these readings, we will trace the relation between the concepts and their effects to discern the histories of sexuality that lie at the root of contemporary debates on freedom, power, resistance, and desire. No prerequisites.
HIPS 24921. Darwinism and Literature. 100 Units.
In this course we will explore the notion that literary fiction can contribute to the generation of new knowledge of the human mind, human behavior, and human societies. Some novelists in the late 19th and early 20th century provided fictional portrayals of human nature that were grounded into Darwinian theory. These novelists operated within the conceptual framework of the complementarity of science and literature advanced by Goethe and the other romantics. At a time when novels became highly introspective and psychological, these writers used their literary craftsmanship to explore and illustrate universals aspects of human nature. In this course we read the work of several novelists such as George Eliot, HG Wells, Joseph Conrad, Jack London, Yuvgeny Zamyatin, Leopold von Sacher-Masoch, Italo Svevo, and Elias Canetti, and discuss how these authors anticipated the discoveries made decades later by cognitive, social, and evolutionary psychology.
HIPS 25011. Debating Science: Legitimacy, Authority, and Knowledge. 100 Units.
How can we tell what counts as science? That is, how does science make itself legible as science? Are the social sciences “as scientific” as the natural sciences? By concerning itself with practices of legitimation, this course introduces students to the social study of science and linguistic anthropological theory. Students will consider the sociopolitical dimensions of scientific activity through a theoretical lens which takes language use as a form of social action. They will consider concepts such as reliability, reproducibility, and objectivity. Case studies will likely include climate change skepticism, education research, and neurodiversity. Students will end the quarter by writing and presenting on a current or historical topic of “scientific” debate, that is, debate on the scientific status of a field or claim.C
HIPS 25014. Introduction to Environmental History. 100 Units.
How have humans interacted with the environment over time? This course introduces students to the methods and topics of environmental history by way of classic and recent works in the field: Crosby, Cronon, Worster, Russell, and McNeill, etc. Major topics of investigation include preservationism, ecological imperialism, evolutionary history, forest conservation, organic and industrial agriculture, labor history, the commons and land reform, energy consumption, and climate change. Our scope covers the whole period from 1492 with case studies from European, American, and British imperial history.
HIPS 25104. History and Philosophy of Biology. 100 Units.
This lecture-discussion course will consider the main figures in the history of biology, from the Hippocratics and Aristotle to Darwin and Mendel. The philosophic issues will be the kinds of explanations appropriate to biology versus the other physical sciences, the status of teleological considerations, and the moral consequences for human beings.
HIPS 25110. Philosophy of History: Narrative & Explanation. 100 Units.
This lecture-discussion course will focus on the nature of historical explanation and the role of narrative in providing an understanding of historical events. Among the figures considered are Gibbon, Kant, Humboldt, Ranke, Collingwood, Acton, Fraudel, Furet, Hempel, Danto. (B) (III)
HIPS 25121. The Brazil-Argentina Nuclear Cooperation Agreement and Thermoelectric Transition in Brazil. 100 Units.
In this course we present a history of Brazil-Argentina nuclear cooperation and how Brazil is planning the transition of its electric matrix from predominantly hydraulic towards a mix with increased share of nuclear power. Proliferation risks are a main concern of international community when nuclear programs expansion is considered. The Brazilian-Argentine Agency for Accounting and Control of Nuclear Materials, created in 1991, has been fundamental in assuring the international community (via the International Atomic Energy Agency) that the nuclear materials and facilities of both countries are being used for peaceful purposes. Domestically, the debate has been environmental in nature, and concerns topics ranging from mining to power generation, and from radioactive materials disposal to radiation effects in living organisms and major accidents. These diplomatic, environmental, social and political issues are in turn dependent on technical details of the thermoelectric generating process, and this nexus of issues provides the topics for the course.
HIPS 25206. Digital Culture: Artificial Intelligence, Algorithms, and the Web. 100 Units.
In contrast to print culture and electronic culture, yet embedded in them, contemporary digital culture engages us in human-computer systems empowered as media for mobile communication in the global network society. In our conjoined online and offline environments, we inhabit human-computer hybrids in which (for instance) we learn, imagine, communicate, pay attention, and experience affect. How can we understand and critique our theories, concepts, practices, and technologies of intelligence and information in relation to the capacities of these digital machines with which we co-evolve? For exploring this question, our case studies include comparing artificial and natural intelligences, as well as examining algorithms and their socio-political impacts, in current web functionalities such as search (Google) and social media (Facebook,Twitter).
HIPS 25207. Mindfulness: Experience and Media. 100 Units.
How do we experience media (of all kinds) with (or without) awareness? Methods of mindfulness offer principles and practices of awareness focusing on mind, body, and embodied mind. Mindfulness (a flexible, moment-to-moment, non-judging awareness) is an individual experience and at the same time, practices of mindfulness can be a mode of public health intervention. Mindfulness involves social epistemologies of how we know (or don’t know) collectively, as we interact with immediate sensory experience as well as with mediated communication technologies generating various sorts of virtual realities (from books to VR). In addition to readings and discussions, this course teaches embodied practices of attention and awareness through the curriculum of Mindfulness-Based Stress Reduction.
HIPS 24215. The History of the Book in East Asia: From Bamboo to Webtoon. 100 Units.
This seminar offers an overview of the development and history of the “book” and its physical forms, broadly conceived, in East Asia from ancient times to the present. Drawing on recent scholarship, selected primary sources, and rare books housed within the library system, this course familiarizes students with the evolution of the book and methods of book production in China, Korea, and Japan, the principles and practices of material bibliography and the application of such to physical and digital objects, and selected topics salient to the social and cultural meanings of books: authorship, the book trade, reading, censorship, and more. Assignments include a short paper, a short presentation, and a longer final paper. All readings in English, but knowledge of East Asian history or languages helpful.
HIPS 25309. History of Perception. 100 Units.
Knowing time. Feeling space. Smelling. Seeing. Touching. Tasting. Hearing. Are these universal aspects of human consciousness, or particular experiences contingent upon time, place, and culture? How do we come to know about our own perceptions and those of others? This course examines these and related questions through detailed readings of primary sources, engagement in secondary scholarship in the history and anthropology of sensation, and through close work with participants’ own sensations and perceptions of the world around them.
HIPS 25316. Global Science. 100 Units.
Is all science global, and if so, how did it get that way? Are some sciences more global than others? What has been at stake historically in describing scientific activity as variously local, transnational, international, or global, and how have these constructions influenced the historiography of the field? In this graduate colloquium, we will explore different approaches to writing and examining scientific knowledge production as a global phenomenon, as well as considering different historiographic attempts at grappling with science’s simultaneously local and global qualities, poly-vocal nature, and historical coproduction with global political and economic power.
HIPS 25421. Renaissance Book History: Censorship and the Print Revolution. 100 Units.
Collaborative research seminar on the history of censorship and information control, with a focus on the history of books and information technologies. The class will meet in Special Collections, and students will work with rare books and archival materials. Half the course will focus on censorship in early modern Europe, including the Inquisition, the spread of the printing press, and clandestine literature in the Renaissance and Enlightenment, with a special focus on the effects of censorship on classical literature, both newly rediscovered works like Lucretius and lost books of Plato, and authors like Pliny the Elder and Seneca who had been available in the Middle Ages but became newly controversial in the Renaissance. The other half of the course will look at modern and contemporary censorship issues, from wartime censorship, to the censorship of comic books, to digital-rights management, to free speech on our own campus.
HIPS 25505. The Scientific Image. 100 Units.
This course explores the broad field of scientific image-making, focusing in particular on problems of formalism, abstraction, and realism. What makes a “good” scientific image? What kind of work do scientific images do? What philosophical, ideological, and political constraints underwrite attempts to render the complexity of events and entities in the world in stylized visual vocabularies? And how might we approach the work of aesthetics and style in image-making? We will examine these questions through a survey of several contemporary scholarly frameworks used for thinking about problems of representation in scientific practice, and will attend to such image-making practices as graphing, diagramming, modeling, doodling, illustrating, sculpting, and photographing, among other methods.
HIPS 25808. Lab, Field, and Clinic: History and Anthropology of Medicine and the Life Sciences. 100 Units.
In this course we will examine the ways in which different groups of people-in different times and places-have understood the nature of life and living things, bodies and bodily processes, and health and disease, among other notions. We will address these issues principally, though not exclusively, through the lens of the changing sets of methods and practices commonly recognizable as science and medicine. We will also pay close attention to the methods through which scholars in history and anthropology have written about these topics, and how current scientific and medical practices affect historical and anthropological studies of science and medicine.
HIPS 26000. History of Philosophy II: Medieval and Early Modern Philosophy. 100 Units.
A survey of the thought of some of the most important figures of the period from the fall of Rome to the Scottish Enlightenment. The course will begin with an examination of the medieval hylomorphism of Aquinas and Ockham and then consider its rejection and transformation in the early modern period. Three distinct early modern approaches to philosophy will be discussed in relation to their medieval antecedents: the method of doubt, the principle of sufficient reason, and empiricism. Figures covered may include Ockham, Aquinas, Descartes, Avicenna, Princess Elizabeth, Émilie du Châtelet, Spinoza, Leibniz, Abelard, Berkeley, Hume, and al-Ghazali.
HIPS 26075. The End of Certainty? Chaos, Complexity, and Human Life. 100 Units.
What is uncertainty? Is it a temporary state of affairs, a situation to be resolved with more data, or is it permanent feature of our world? This course examines how uncertainty, once understood as the absence of knowledge, has become an object of knowledge in its own right. We will pay particular attention to the fields of chaos theory and complexity science, which emerged in the late twentieth century from physics and mathematics but have since become widely applied sciences, making their way into fields as diverse as molecular biology and economic theory. Together we will follow the path of ‘complexity’ in its many forms, reading texts by geneticists, physicists, climate scientists, philosophers, economists and many others. By the end of the course we will have developed a shared archive of uncertainty, and gained a better understanding of how uncertainty underpins what we do, in fact, know. This course is collaborative, interdisciplinary and historical, and welcomes all interested students, including those with backgrounds in history, philosophy, biological sciences, environmental studies, mathematics, and economics.
HIPS 26078. Normal People. 100 Units.
Worrying about what’s normal and what’s not is an endemic feature of both our popular and scientific cultures. Is my intelligence above average? What about my height? Should I be feeling this way? Is there a pill for that? People seem to have always been concerned with fitting in, but the way of describing the general run of practices and conditions as “normal” is a rather recent phenomenon; testament to the vast influence of the modern human sciences on how we understand ourselves and others. This seminar will offer a broad historical overview of the ways that group behaviors and individual traits – bodily, moral, intellectual – were methodically described and measured in the past 200 years. We will become acquainted with the work of sociologists and anthropologists, psychiatrists and psychologists, polling experts and child development specialists, and ask about the kinds of people their efforts brought into being, from sexual perverts to the chronically depressed. The course will focus on the scientific theories and techniques used to distinguish the normal from the pathological, together with the new social institutions that translated this knowledge into forms of control. We will read Émile Durkheim on suicide rates and Cesare Lombroso on born criminals; learn about IQ tests and developmental milestones; and consider whether, with the advent of personalized medicine and self-data, we have indeed reached the “end of average.”
HIPS 26207. History Colloquium: Epidemics, Public Health, and Cities. 100 Units.
The ongoing COVID-19 epidemic has brought a new awareness of the devastating impact of epidemic disease, particularly in cities where population density and other factors contribute to high rates of infection. This undergraduate colloquium aims to guide students through the research and writing of an original research paper that explores public health response to epidemic disease in cities around the world. Topics to be examined include defining an appropriate research question, identifying relevant secondary literature, finding primary sources, and constructing a compelling narrative.
HIPS 26230. Death Panels: Exploring dying and death through comics. 100 Units.
What do comics add to the discourse on dying and death? What insights do comics provide about the experience of dying, death, caregiving, grieving, and memorialization? Can comics help us better understand our own wishes about the end of life? This is an interactive course designed to introduce students to the field of graphic medicine and explore how comics can be used as a mode of scholarly investigation into issues related to dying, death, and the end of life. The framework for this course intends to balance readings and discussion with creative drawing and comics-making assignments. The work will provoke personal inquiry and self-reflection and promote understanding of a range of topics relating to the end of life, including examining how we die, defining death, euthanasia, rituals around dying and death, and grieving. The readings will primarily be drawn from a wide variety of graphic memoirs and comics, but will be supplemented with materials from a variety of multimedia sources including the biomedical literature, philosophy, cinema, podcasts, and the visual arts. Guest participants in the course may include a funeral director, chaplain, hospice and palliative care specialists, cartoonists, and authors. The course will be taught by a nurse cartoonist and a physician, both of whom are active in the graphic medicine community and scholars of the health humanities.
HIPS 26304. Religion and Abortion in the United States. 100 Units.
In American public discourse, it is common to hear abortion referred to as a “religious issue.” But is abortion a religious issue? If so, in what ways, to whom, and since when? In this course we will answer these questions by tracing the relationship between religion and abortion in American history. We will examine the kinds of claims religious groups have made about abortion; how religion has shaped the development of medical, legal, economic, and cultural perspectives on the topic; how debates over abortion have led to the rise of a certain kind of religious politics in the United States; and how issues of race, class, gender, sexuality, and the body are implicated in this conversation. Although the course will cover a range of time periods, religious traditions, and types of data (abortion records from Puritan New England, enslaved people’s use of root medicine to induce miscarriage, and Jewish considerations of the personhood of the fetus, among others), we will give particular attention to the significance of Christianity in legal and political debates about abortion in the twentieth and twenty-first centuries. There are no prerequisites for this course and no background in Religious Studies is required. However, this course may be particularly well-suited to students interested in thinking about how their areas of study (medicine and medical sciences, gender and sexuality, race and ethnicity, political science) converge with religion and Religious Studies.
HIPS 26316. Medical Innnovation and Religious Reform in Early Modernity. 100 Units.
Through a survey of innovative medical authorities and religious reformers, students will investigate the co-constitution of two bodies of knowledge at a historical moment (the sixteenth and seventeenth centuries) when questions of authority and epistemology are in considerable flux. This period has long been implicated in the “conflict thesis”-a hugely influential argument that portrays the centuries-long relationship between religion and science/medicine as an inherently adversarial one. This course shall scrutinize that argument through a discussion of seemingly contradictory examples where reformers that touted the all-encompassing reach of divine providence also promoted intricate public health infrastructures; where the Vatican increasingly relied on university-trained physicians to validate saints and their miracles; where theologians were viewed as authorities on Galen and responsible for medical breakthroughs; and where medicine and metaphysics were considered complementary pursuits. Ultimately, students will unveil a portrait not of conflict, but of a symbiotic relationship between religion and medicine. The goal of our course will then be to query why religious reformers were not only unthreatened by but also actively esteemed the medical arts as a valuable ally.
HIPS 26382. Development and Environment in Latin America. 100 Units.
Description: This course will consider the relationship between development and the environment in Latin America and the Caribbean. We will consider the social, political, and economic effects of natural resource extraction, the quest to improve places and peoples, and attendant ecological transformations, from the onset of European colonialism in the fifteenth century, to state- and private-led improvement policies in the twentieth. Some questions we will consider are: How have policies affected the sustainability of land use in the last five centuries? In what ways has the modern impetus for development, beginning in the nineteenth century and reaching its current intensity in the mid-twentieth, shifted ideas and practices of sustainability in both environmental and social terms? And, more broadly, to what extent does the notion of development help us explain the historical relationship between humans and the environment?
HIPS 26390. Science and Society in Latin America. 100 Units.
How have ideas about and practices of science shaped life and society in Latin America? This course explores the interconnected social and political realities of scientific theory and practice in modern Latin America. Taking a historical approach, it will focus on the scientific management of social and political life, including the construction of categories such as sex and race; the production, consumption, and policing of drugs; and public health. In this discussion-based course, students will develop their own research project that historicizes a contemporary question related to scientific knowledge and/or practice in the region.
HIPS 26943. Diasporic Narratives and Memories. 100 Units.
Of the many emigrant communities in Chicago, Belarusians are the only group that does not yet have its own museum. Our course takes this lack as an opportunity to provide training for students to create a grassroots community-driven initiative that empirically develops a conceptual foundation for a new type of multi-ethnic museum of emigration, one informed by the experiences of community members themselves and their relationship to the artifacts that define their identities and memories. This course allows students to actively participate in a museum creation project which takes as its point of departure not a nation-state narrative, but the everyday life of a multi-ethnic community with the goal of informing research, policy, and public discourse about emigration. We center our course around the material heritage of Belarussia and its dispersal in emigration. We analyze how a diasporic museum’s main role is to collect, protect and curate the material legacy of the Belarussian community to ensure its future stability. The course participants collaborate with the Chicago Studies Program, the NGO Belarusians in Chicago, and the Chicago History Museum to study the role of artifacts in museums. The students conduct the field work about multi-ethnic Belarusian emigration to include experiences of Belarusian Jews, Belarusian Russians, Belarusian Lithuanians, Belarusian Tatars, and other groups from Belarus.
HIPS 27004. Babylon and the Origins of Knowledge. 100 Units.
In 1946 the famed economist John Maynard Keynes declared that Isaac Newton “was the last of the magicians, the last of the Babylonians.” We find throughout history, in the writings of Galileo, Jorge Luis Borges, Ibn Khaldun, Herodotus, and the Hebrew Bible, a city of Babylon full of contradictions. At once sinful and reverential, a site of magic and science, rational and irrational, Babylon seemed destined to resound in the historical imagination as the birthplace of knowledge itself. But how does the myth compare to history? How did the Babylonians themselves envisage their own knowledge? And is it reasonable to draw, as Keynes did, a line that begins with Babylon and ends with Newton? In this course we will take a cross comparative approach, investigating the history of the ancient city and its continuity in the scientific imagination.
HIPS 27005. Secrecy and Science. 100 Units.
This course traces the relationship between openness, secrecy, and the construction of scientific knowledge. Our sources span several millennia of intellectual history, from cuneiform tablets containing glassmaking recipes and the “secrets of the gods,” to Medieval alchemical recipes, and to the first museums of natural history. We will investigate how and why science shifted from a subject intended for the elite few, to a more democratic ideal that embraced public demonstration. The role of patronage in the development of scientific knowledge, and the complex interaction between science and religion will be central to our discussions. Writing assignments will respond to thematic questions based on the readings.
HIPS 27301. Medical Anthropology. 100 Units.
This course introduces students to the central concepts and methods of medical anthropology. Drawing on a number of classic and contemporary texts, we will consider both the specificity of local medical cultures and the processes which increasingly link these systems of knowledge and practice. We will study the social and political economic shaping of illness and suffering and will examine medical and healing systems-including biomedicine-as social institutions and as sources of epistemological authority. Topics covered will include the problem of belief; local theories of disease causation and healing efficacy; the placebo effect and contextual healing; theories of embodiment; medicalization; structural violence; modernity and the distribution of risk; the meanings and effects of new medical technologies; and global health.
HIPS 27515. Scientific and Humanistic Contributions to Knowledge Formation. 100 Units.
In this course, we will explore whether the sciences and the humanities can make complementary contributions to the formation of knowledge, thus leading to the integration and unification of human knowledge. In the first part of the course we will take a historical approach to the issue; we will discuss how art and science were considered complementary for much of the 18th and 19th century (for example, in the views and work of Wolfgang Goethe), how they became separate (‘the two cultures’) in the middle of the 20th century with the compartmentalization of academic disciplines, and how some attempts have recently been made at a reunification under the concept of ‘consilience’. In the second part of the course, we will focus on conceptual issues such as the cognitive value of literature, the role of ideas in knowledge formation in science and literature, the role of creativity in scientific and literary production, and how scientific and philosophical ideas have been incorporated into literary fiction in the genre known as ‘the novel of ideas’. As an example of the latter, we will read the novel ‘One, No One, and 100,000’ (1926) by Luigi Pirandello and discuss how this author elaborated and articulated a view of the human persona (including issues of identity and personality) from French philosophers and psychologists such as Henri Bergson and Alfred Binet.
HIPS 27520. Indigenous Religions, Health, and Healing. 100 Units.
This course introduces students to the dynamic, often-contested understandings of health, healing, and religion among the Indigenous peoples of the Americas. Our task will be threefold: first, to examine the drastic effects of settler colonialism upon the social determinants of health for Indigenous peoples throughout the Americas, including the Caribbean, Mexico, United States, and Hawaii. Second, we shall attempt to understand healing practices as they are steeped in and curated by Indigenous traditions and religious beliefs. Our goal is to counteract centuries-old stereotypical images of Native peoples and challenge our preconceived notions of wellness, selfhood, and the boundaries of medicine. Third, we will reflect upon contemporary Indigenous approaches to health and healing with particular attention to the postcolonial hybridity of these practices. Throughout the course we will attend to a generative diversity of epistemologies, anthropologies, and religious worldviews with the ultimate goal that a renewed understanding of Indigenous healing traditions will augment our own approaches to global/public health and the study of religion.
HIPS 27706. Research in Archives: Human Bodies in History. 100 Units.
How have we come to know and experience our bodies? This undergraduate seminar develops humanities research skills necessary to study the body in history. Spanning early modern cultural practices to modern medicine, science, and technology, this course explores how ideas and practices concerning the body have changed over time and how the body itself is shaped by culture and society. A major focus will be learning how to conduct different forms of historical research to produce cutting-edge humanities scholarship about the human body. Readings will introduce key themes and recent scholarship including work on disability, reproduction, race, gender, ethics, extreme environments, and identity. This dynamic research group will grapple with issues at the heart of our corporeal existence by combining perspectives from the history of science, medicine, and technology, cultural history, anthropology, and science and technology studies (STS).
HIPS 27901. Religion, Science, Naturalism: Is There a Problem? 100 Units.
The idea that “religion” and “science” are basically at odds with one another – that they involve, indeed, essentially different kinds of rationality – is surely foremost among the ideas that arguably distinguish modernity. This class will consider some of the various ways in which that conclusion has been resisted by some twentieth- and twenty-first-century thinkers, drawing on a range of philosophical and religious perspectives – those, for example, of the Anglo-Austrian philosopher Ludwig Wittgenstein (who would complicate our understanding of what it means to “believe” anything); the German theologian Rudolf Bultmann (whose method precisely distinguished existential questions from scientific ones); and the 14th Dalai Lama of Tibet (who thinks it imperative that the limits of scientific understanding be acknowledged in light of a Buddhist critique). Particular attention will be given to early writings from American pragmatist philosopher-scientists (William James, C. S. Peirce, and John Dewey), who argued that it is a mistake in the first place to think religion necessarily concerns anything “supernatural”; religion, for these thinkers, can therefore be understood as wholly consistent with naturalism.
HIPS 28101. Psychoanalysis and Philosophy. 100 Units.
An introduction to psychoanalytic thinking and its philosophical significance. A question that will concern us throughout the course is: What do we need to know about the workings of the human psyche-in particular, the Freudian unconscious-to understand what it would be for a human to live well? Readings from Plato, Aristotle, Freud, Bion, Betty Joseph, Paul Gray, Lacan, Lear, Loewald, Edna O’Shaughnessy, and others.
HIPS 28319. Ephron course: Imagining Nature among the Greeks. 100 Units.
The goal of this course is to gain an understanding of the historical roots of the concept of nature (Greek physis), while being attentive to the diversity of ancient Greek thought about nature even in its early history. In the texts we will read, numerous notions of “nature” can be discerned: for instance, nature as the physical form of an individual, nature as an underlying reality of someone or something, nature as an autonomous thing distinct from human art and from the supernatural, nature as the all-encompassing natural order, or nature as the natural environment. The conceptual and ideological work done by these conceptions also varies wildly. Furthermore, the images associated with the concepts are similarly diverse, ranging from human bodies to magical plants and cosmic spheres, and with a comparable repertory of conceptual and ideological purposes. Yet discussions of the concept of nature typically deal almost exclusively in abstractions: this is true, for instance, of the standard study of physis written over a century ago as a U of C dissertation, which we will read in excerpt. Throughout this class, we will consider not only the explicit and abstract conceptualization of nature, but also a number of related images-especially in the form of metaphors, analogies and personifications-that ultimately fed into the literary and philosophical depictions of nature in the long traditions that have followed.
HIPS 29700. Readings and Research in History, Philosophy, and Social Studies of Science and Medicine. 100 Units.
Reading and Research for HIPS seniors working on their senior thesis.
HIPS 29800. Junior Seminar: My Favorite Readings in the History and Philosophy of Science. 100 Units.
This course introduces some of the most important and influential accounts of science to have been produced in modern times. It provides an opportunity to discover how philosophers, historians, anthropologists, and sociologists have grappled with the scientific enterprise, and to assess critically how successful their efforts have been. Authors likely include Karl Popper, Thomas Kuhn, Robert Merton, Steven Shapin, and Bruno Latour.
HIPS 29810. Bachelor’s Thesis Workshop. 100 Units.
Thesis writing workshop for HIPS seniors.
Terms Offered: Autumn,Spring,Winter
HIPS 29900. Bachelor’s Thesis. 100 Units.
This is a research course for independent study related to thesis preparation.
Chicago Pre Med Majors – Molecular Engineering
Overview of Molecular Engineering
Engineering focuses on solving complex technological problems and, in the case of molecular engineering, applying molecular-level science to the design of advanced devices and systems, processes, and technologies. The Pritzker School of Molecular Engineering (PME) is at the forefront of developing advanced molecular technologies to address pressing global and societal challenges, like those found in the fields of quantum computing and materials, cancer treatment, water use and purification, energy storage, and regenerative medicine.
Program of Study in Molecular Engineering
The BS degree in Molecular Engineering offers undergraduates a cutting-edge engineering curriculum built on a strong foundation in mathematics, physics, chemistry, and biology. Courses in the major are designed to develop quantitative reasoning and problem-solving skills; to introduce engineering analysis of biological, chemical, and physical systems; and to address open-ended technological questions across a spectrum of disciplines. The aim is to introduce invention and design, along with inquiry and discovery, as fruitful and complementary intellectual activities.
The program prepares undergraduates for leadership roles in a technology-driven society. Graduates will be positioned to follow traditional engineering paths in research, technology development, and manufacturing, or to pursue further postgraduate study in such fields as engineering, science, medicine, business, or law. Other graduates may successfully leverage the quantitative and problem-solving skills gained in their training as engineers towards careers in technical and management consulting, finance, public policy, or entrepreneurship.
Major Program Requirements
1. A strong and broad background in mathematics, physics, chemistry, and biology. It is imperative for a modern engineer to have a strong and broad background in the sciences, and the highly interdisciplinary nature of molecular engineering requires a foundation built across the mathematical, physical, and biological sciences.
Completing mathematics, chemistry, and physics course work during the first year at the University of Chicago is highly recommended for students interested in taking advantage of specializations in Molecular Engineering (for example, in quantum information science, immunoengineering, polymers and soft materials, or sustainable energy and water resources), advanced electives, research and design projects, and other opportunities beyond the required major course work. Completion of at least MATH 18400, CHEM 11300, and PHYS 13300, or approved equivalents, by the end of the first year is a prerequisite for Molecular Engineering course work during a student’s second year. Therefore, all students majoring in Molecular Engineering are strongly advised to take mathematics, chemistry, and physics courses concurrently during their first year at the University. Students also are advised to start the mathematics, chemistry, and physics sequences at the highest level for which they are prepared, and to complete their general education requirements as early as possible.
Students who satisfy the mathematics, chemistry, and physics requirements during their second year will be able to complete the Molecular Engineering major during their third and fourth years, but may be unable to avail themselves of advanced engineering opportunities.
2. Starting the program. All students begin their Molecular Engineering coursework by enrolling in MENG 21100 Principles of Engineering Analysis I once they have satisfied the mathematics, chemistry, and physics prerequisites. This course is offered in the Autumn Quarter only. Students are encouraged to take this course during their second year of studies, which enables them to access the new minors and advanced specializations in Molecular Engineering, advanced electives, research and design projects, and other opportunities beyond the required major coursework.
3. Foundations in Molecular Engineering. All Molecular Engineering majors take a set of five courses as a cohort that develop a shared skill set essential for engineering at the atomistic, molecular, and nano scales. These courses include MENG 21100-21200 Principles of Engineering Analysis I and II which provide model building skills, numerical methods, and computational tools critical to solving quantitative problems across all engineering fields, as well as MENG 21300 Engineering Quantum Mechanics, MENG 21400 Molecular Engineering Thermodynamics, and MENG 21500 Molecular Engineering Transport Phenomena.
4. Three Molecular Engineering tracks. Another strength of the Molecular Engineering program is that students select one of three tracks—bioengineering, chemical engineering, or quantum engineering—to concentrate and deepen knowledge in the area that interests them the most. Designed to reflect the research and education themes of the Pritzker School of Molecular Engineering, each track consists of six courses, as follows:
- Bioengineering Track includes courses in organic chemistry, biochemistry, quantitative physiology, systems biology, and cellular engineering.
- Chemical Engineering Track includes courses in organic chemistry, fluid mechanics, kinetics and reaction engineering, the thermodynamics of mixtures, and molecular modeling.
- Quantum Engineering Track includes courses in quantum mechanics and engineering, electricity and magnetism, optics, electrodynamics, quantum computation, and laboratory instrumentation.
5. MENG 21800-21900 Engineering Design I-II (200-unit capstone sequence). The design course is a two-quarter sequence that teaches students how to combine fundamental science and engineering to address open-ended, real-world challenges. Engineers from industry, the national laboratories, and academia, including PME faculty and fellows, propose real-world projects for which they serve as mentors. Students work together in small teams throughout the two quarters to address the diverse engineering challenges that arise. Examples of recent design projects that have been undertaken by Molecular Engineering majors include developing self-cleaning textiles that photocatalytically degrade microbial contaminants; applying machine learning to analyze ultrafast X-ray images of liquid jets and sprays; and evaluating the technical and economic barriers of emerging approaches to plastic recycling.
The design course also serves as a vehicle to teach other equally important non-technical skills, including:
- Problem identification: technology analysis, competitive analysis, market analysis, stakeholder analysis, product definition
- Impact of the project, including sociological and engineering ethics
- Project planning
- Project economics: costs, value/investment analysis, risk analysis and adjustment
- Prototyping, experimental design, data analysis, error analysis
- IP: patenting, prior art, patentability
- Legal and regulatory analysis
- Proposing, presenting, and reporting
- Teamwork
6. Laboratory skills and hands-on experience. Molecular engineers should develop the ability to apply their knowledge of mathematics, science, and engineering; to design and conduct experiments; and to analyze and interpret data. Molecular Engineering majors develop these skills through laboratory components associated with the required courses in the physical and biological sciences, as well as Molecular Engineering courses including MENG 24100 Molecular Engineering Thermodynamics of Phase Equilibria, MENG 24200 Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes, MENG 24400 Chemical Kinetics and Reaction Engineering, MENG 26200 QuantumLab, and optionally MENG 23310 Immunoengineering Laboratory. In addition, Molecular Engineering students are strongly encouraged to undertake advanced laboratory experiences by pursuing undergraduate research projects with faculty in the PME, at Argonne National Laboratory, or across the University of Chicago.
Summary of Requirements for the Major in Molecular Engineering: Bioengineering Track
GENERAL EDUCATION | ||
CHEM 10100 & 10200 |
Introductory General Chemistry I and Introductory General Chemistry II (or higher) 1 |
200 |
One of the following sequences: | 200 | |
BIOS 20186-20187
|
Fundamentals of Cell and Molecular Biology; Fundamentals of Genetics 2 | |
BIOS 20234
& 20235 |
Molecular Biology of the Cell and Biological Systems 3 |
|
Total Units | 400 |
MAJOR | ||
CHEM 11300 | Comprehensive General Chemistry III (or higher) 1 | 100 |
PHYS 13100-13200-13300 | Mechanics; Electricity and Magnetism; Waves, Optics, and Heat (or higher) | 300 |
MATH 18500 | Mathematical Methods in the Physical Sciences III 4 | 100 |
MATH 18600 | Mathematics of Quantum Mechanics (or approved substitute) 5,6 | 100 |
MENG 21100 | Principles of Engineering Analysis I | 100 |
MENG 21200 | Principles of Engineering Analysis II | 100 |
MENG 21300 | Engineering Quantum Mechanics | 100 |
MENG 21400 | Molecular Engineering Thermodynamics | 100 |
MENG 21500 | Molecular Engineering Transport Phenomena | 100 |
MENG 21800 & 21900 |
Engineering Design I and Engineering Design II |
200 |
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II |
200 |
BIOS 20200 | Introduction to Biochemistry | 100 |
MENG 24200 | Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes | 100 |
Two of the following: | 200 | |
MENG 22100
|
Quantitative Physiology | |
MENG 22200
|
Cellular Engineering | |
MENG 22300
|
Quantitative Systems Biology | |
MENG 22400
|
Bioengineering Kinetics | |
Total Units | 1900 |
Summary of Requirements for the Major in Molecular Engineering: Chemical Engineering Track
GENERAL EDUCATION | ||
CHEM 10100 & 10200 |
Introductory General Chemistry I and Introductory General Chemistry II (or higher) 1 |
200 |
One of the following sequences: | 200 | |
BIOS 20186-20187
|
Fundamentals of Cell and Molecular Biology; Fundamentals of Genetics 2 | |
BIOS 20234
& 20235 |
Molecular Biology of the Cell and Biological Systems 3 |
|
Total Units | 400 |
MAJOR | ||
CHEM 11300 | Comprehensive General Chemistry III (or higher) 1 | 100 |
PHYS 13100-13200-13300 | Mechanics; Electricity and Magnetism; Waves, Optics, and Heat (or higher) | 300 |
MATH 18500 | Mathematical Methods in the Physical Sciences III 4 | 100 |
MATH 18600 | Mathematics of Quantum Mechanics (or approved substitute) 5,6 | 100 |
MENG 21100 | Principles of Engineering Analysis I | 100 |
MENG 21200 | Principles of Engineering Analysis II | 100 |
MENG 21300 | Engineering Quantum Mechanics | 100 |
MENG 21400 | Molecular Engineering Thermodynamics | 100 |
MENG 21500 | Molecular Engineering Transport Phenomena | 100 |
MENG 21800 & 21900 |
Engineering Design I and Engineering Design II |
200 |
CHEM 22000 & 22100 |
Organic Chemistry I and Organic Chemistry II |
200 |
MENG 24100 | Molecular Engineering Thermodynamics of Phase Equilibria | 100 |
MENG 24200 | Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes | 100 |
MENG 24300 | Molecular Modeling | 100 |
MENG 24400 | Chemical Kinetics and Reaction Engineering | 100 |
Total Units | 1900 |
Summary of Requirements for the Major in Molecular Engineering: Quantum Engineering Track
GENERAL EDUCATION | ||
CHEM 10100 & 10200 |
Introductory General Chemistry I and Introductory General Chemistry II (or higher) 1 |
200 |
One of the following sequences: | 200 | |
BIOS 20186-20187
|
Fundamentals of Cell and Molecular Biology; Fundamentals of Genetics 2 | |
BIOS 20234
& 20235 |
Molecular Biology of the Cell and Biological Systems 3 |
|
Total Units | 400 |
MAJOR | ||
CHEM 11300 | Comprehensive General Chemistry III (or higher) 1 | 100 |
MATH 18500 & 18600 |
Mathematical Methods in the Physical Sciences III and Mathematics of Quantum Mechanics 4 |
200 |
PHYS 13100-13200-13300 | Mechanics; Electricity and Magnetism; Waves, Optics, and Heat (or higher) | 300 |
MENG 21100 | Principles of Engineering Analysis I | 100 |
MENG 21200 | Principles of Engineering Analysis II | 100 |
MENG 21300 | Engineering Quantum Mechanics | 100 |
MENG 21400 | Molecular Engineering Thermodynamics | 100 |
MENG 21500 | Molecular Engineering Transport Phenomena | 100 |
MENG 21800 & 21900 |
Engineering Design I and Engineering Design II |
200 |
PHYS 22500-22700 | Intermediate Electricity and Magnetism I-II | 200 |
MENG 26100-26110 | Intermediate Quantum Engineering I-II | 200 |
MENG 26200 | QuantumLab | 100 |
One of the following: | 100 | |
MENG 26300
|
Engineering Electrodynamics | |
MENG 26400
|
Quantum Computation | |
MENG 26500
|
Foundations of Quantum Optics | |
MENG 26510
|
Optics and Photonics | |
MENG 26600
|
Electronic and Quantum Materials for Technology | |
MENG 26610
|
Science of Materials | |
MENG 26620
|
Physics of Solid State Semiconductor Devices | |
MENG 26630
|
Introduction to Nanofabrication | |
Total Units | 1900 |
Sample Major Programs
Sample four-year programs for the Molecular Engineering major are provided below. These are suggestions for possible student trajectories through the major, but do not represent the only four-year programs that would lead to completion of the Molecular Engineering major requirements. Students should rely on the direction of the Molecular Engineering and College advisers, as well as relevant placement tests, in creating a personal four-year program that accommodates their individual backgrounds and interests.
Recommended four-year program for the Bioengineering Track. It is recommended that students complete the background mathematics, chemistry, and physics sequences during their first year at the University and start these sequences at the highest level for which they are prepared.
First Year | |||||
---|---|---|---|---|---|
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18300 | MATH 18400 | MATH 18500 | |||
CHEM 10100 | CHEM 10200 | CHEM 11300 | |||
PHYS 13100 | PHYS 13200 | PHYS 13300 | |||
Second Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18600 | MENG 21200 | BIOS 20186 | |||
MENG 21100 | MENG 21300 | MENG 21400 | |||
CHEM 22000 | CHEM 22100 | ||||
Third Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
BIOS 20187 | MENG 24200 | BIOS 20200 | |||
MENG 21500 | MENG elective | MENG elective | |||
Fourth Year | |||||
Autumn Quarter | Winter Quarter | ||||
MENG 21800 | MENG 21900 |
Alternative four-year program for the Bioengineering Track. This example program for the Molecular Engineering major does not require completion of mathematics, chemistry, and physics sequences during a student’s first year at the University, but advanced coursework such as required in the specializations in Molecular Engineering may not fit within the four-year program.
First Year | |||||
---|---|---|---|---|---|
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 15100 | MATH 15200 | MATH 18300 | |||
CHEM 10100 | CHEM 10200 | CHEM 11300 | |||
BIOS 20186 | |||||
Second Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18400 | MATH 18500 | MATH 18600 | |||
PHYS 13100 | PHYS 13200 | PHYS 13300 | |||
BIOS 20187 | |||||
Third Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MENG 21100 | MENG 21200 | MENG 21400 | |||
CHEM 22000 | MENG 21300 | BIOS 20200 | |||
CHEM 22100 | |||||
Fourth Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MENG 21500 | MENG 24200 | MENG elective | |||
MENG 21800 | MENG 21900 | ||||
MENG elective |
Sample four-year program for the Chemical Engineering Track. It is recommended that students complete the background mathematics, chemistry, and physics sequences during their first year at the University and start these sequences at the highest level for which they are prepared.
First Year | |||||
---|---|---|---|---|---|
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18300 | MATH 18400 | MATH 18500 | |||
CHEM 10100 | CHEM 10200 | CHEM 11300 | |||
PHYS 13100 | PHYS 13200 | PHYS 13300 | |||
Second Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18600 | MENG 21200 | BIOS 20186 | |||
MENG 21100 | MENG 21300 | MENG 21400 | |||
CHEM 22000 | CHEM 22100 | ||||
Third Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
BIOS 20187 | MENG 24200 | MENG 24300 | |||
MENG 21500 | MENG 24400 | ||||
MENG 24100 | |||||
Fourth Year | |||||
Autumn Quarter | Winter Quarter | ||||
MENG 21800 | MENG 21900 |
Sample four-year program for the Quantum Engineering Track. It is recommended that students complete the background mathematics, chemistry, and physics sequences during their first year at the University and start these sequences at the highest level for which they are prepared.
First Year | |||||
---|---|---|---|---|---|
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18300 | MATH 18400 | MATH 18500 | |||
CHEM 10100 | CHEM 10200 | CHEM 11300 | |||
PHYS 13100 | PHYS 13200 | PHYS 13300 | |||
Second Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
MATH 18600 | MENG 21200 | BIOS 20186 | |||
MENG 21100 | MENG 21300 | MENG 21400 | |||
PHYS 22500 | PHYS 22700 | ||||
Third Year | |||||
Autumn Quarter | Winter Quarter | Spring Quarter | |||
BIOS 20187 | MENG 26110 | MENG 26200 | |||
MENG 21500 | MENG elective | ||||
MENG 26100 | |||||
Fourth Year | |||||
Autumn Quarter | Winter Quarter | ||||
MENG 21800 | MENG 21900 |
Grading
In order to qualify for the BS degree, a GPA of 2.0 or higher (with no grade lower than C-) is needed in all courses required in the major. Students majoring in Molecular Engineering must receive quality grades in all courses required in the degree program. All courses in the minors must be taken for quality grades. Non-majors and non-minors may take Molecular Engineering courses on a P/F basis; only grades of C- or higher constitute passing work.
Honors
Students who pursue a substantive research project with a faculty member of the Pritzker School of Molecular Engineering are encouraged to write and defend an honors thesis based on their work. Often students initiate this research program during their third year and continue through their fourth year. Students who wish to be considered for honors are expected to complete their arrangements with the Director of Undergraduate Studies (Mark Stoykovich, stoykovich@uchicago.edu) before the end of their third year and to register for one quarter of MENG 29700 Undergraduate Research for Molecular Engineering during their third or fourth years.
To be eligible to receive honors, students in the BS degree program must write an honors paper describing their research and defend their thesis with an oral presentation. The honors paper and oral defense must be approved by faculty of the Pritzker School of Molecular Engineering and have deadlines established by the PME. The research paper or project used to meet this requirement may not be used to meet the BA/BS paper or project requirements in another major.
In addition, students must also have an overall GPA of 3.0 or higher to earn a BS degree with honors in Molecular Engineering.
Specialized Minors in Molecular Engineering
Students majoring in Molecular Engineering or other closely related scientific disciplines can further broaden and deepen their engineering and scientific knowledge by completing specialized minors in Molecular Engineering. Seven minors composed of advanced coursework have been offered since the 2020–21 academic year in the specialized areas of Quantum Information Science; Molecular, Cellular, and Tissue Engineering; Immunoengineering; Systems Bioengineering; Molecular Science and Engineering of Polymers and Soft Materials; Molecular Engineering of Sustainable Energy and Water Resources; and Computational Molecular Engineering
Minor Program in Quantum Information Science
Quantum science, which harnesses the strange rules of physics that govern the smallest particles in nature, is shifting paradigms in fundamental and applied physics, chemistry, biology, and computer science. The minor leverages the unique strengths of the faculties of Molecular Engineering, Physics, and Computer Science to provide students with a foundation to understand and contribute to quantum sciences and technologies. The minor focuses on both the theory of quantum information processing as well as the physical systems and principles that comprise quantum technology.
Summary of Requirements for the Minor in Quantum Information Science
MENG 26400 | Quantum Computation * | 100 |
MENG 26500 | Foundations of Quantum Optics | 100 |
MENG 26600 | Electronic and Quantum Materials for Technology | 100 |
MENG 31400 | Advanced Quantum Engineering | 100 |
MENG 37100 | Implementation of Quantum Information Processors | 100 |
MENG 37200 | Quantum Dissipation and Quantum Measurement | 100 |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Molecular, Cellular, and Tissue Engineering
The minor in Molecular, Cellular, and Tissue Engineering provides a strong background in cell and molecular biology to allow molecular engineering innovation in the engineering areas of biomaterials, regenerative medicine, and stem cell bioengineering. Courses are offered in these basic areas as well as microfluidics, synthetic biology, molecular imaging, immunoengineering, and nanomedicine to develop novel cellular and molecular therapies. The course of study emphasizes both basic aspects of physical and cellular biology and translational applications in medicine. In addition, courses on quantitative aspects of cell biology and systems biology are offered, building upon biological fundamentals with quantitative analysis.
Summary of Requirements for the Minor in Molecular, Cellular, and Tissue Engineering
MENG 22200 | Cellular Engineering * | 100 |
MENG 22100 | Quantitative Physiology | 100 |
MENG 23100 | Biological Materials | 100 |
MENG 23110 | Stem Cell Biology, Regeneration, and Disease Modeling | 100 |
Two of the following: | 200 | |
MENG 22300
|
Quantitative Systems Biology | |
MENG 22400
|
Bioengineering Kinetics | |
MENG 23120
|
The Structural Basis of Biomolecular Engineering | |
MENG 23130
|
Proteomics and Genomics in Biomolecular Engineering | |
MENG 23140
|
Biodiagnostics and Biosensors | |
MENG 23150
|
Nanomedicine | |
MENG 23500
|
Synthetic Biology | |
MENG 23510
|
Microfluidics and Its Applications | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Immunoengineering
Immunoengineering is an emerging discipline at the intersection of engineering and immunology. Immunoengineering applies engineering principles and methods to quantitatively study and manipulate the complex immune system. It is becoming a powerful approach to understand, manipulate, stimulate, and eventually control immune molecules and cells to treat a broad range of health conditions, including cancer, infection, and autoimmunity. Immunoengineering not only drives innovation in immunological research, but also advances technological development in immunotherapies. Recent developments in immunotherapy have shifted the paradigm for cancer treatment, and immunotherapy is considered the future of disease treatment.
Summary of Requirements for the Minor in Immunoengineering
MENG 22100 | Quantitative Physiology * | 100 |
MENG 23200 | Principles of Immunology | 100 |
MENG 23300 | Quantitative Immunobiology | 100 |
MENG 23310 | Immunoengineering Laboratory | 100 |
One of the following: | 100 | |
MENG 22200
|
Cellular Engineering | |
MENG 22300
|
Quantitative Systems Biology | |
MENG 23100
|
Biological Materials | |
MENG 23140
|
Biodiagnostics and Biosensors | |
MENG 23510
|
Microfluidics and Its Applications | |
One of the following: | 100 | |
BIOS 25108
|
Cancer Biology | |
BIOS 25216
|
Molecular Basis of Bacterial Disease | |
BIOS 25258
|
Immunopathology | |
BIOS 25260
|
Host Pathogen Interactions | |
BIOS 25266
|
Molecular Immunology | |
BIOS 27811
|
Global Health Sciences II: Microbiology | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Systems Bioengineering
The minor in Systems Bioengineering will provide students with strong knowledge and applied skills in the use of quantitative methods for the analysis, manipulation, and computational modeling of complex biological systems, and will introduce them to some of the most important problems and applications in quantitative and systems biology. The students will survey theoretical concepts and tools for analysis and modeling of biological systems like biomolecules, gene networks, single cells, and multicellular systems. Concepts from information theory, biochemical networks, control theory, and linear systems will be introduced. Mathematical modeling of biological interactions will be discussed and implemented in the laboratory. Quantitative experimental methods currently used in systems biology will be introduced. These methods include single cell genomic, transcriptomic, and proteomic analysis techniques, in vivo and in vitro quantitative analysis of cellular and molecular interactions, single molecule methods, live cell imaging, high throughput microfluidic analysis, and gene editing.
Summary of Requirements for the Minor in Systems Bioengineering
MENG 22300 | Quantitative Systems Biology * | 100 |
MENG 23300 | Quantitative Immunobiology | 100 |
MENG 23500 | Synthetic Biology | 100 |
Two of the following: | 200 | |
MENG 22100
|
Quantitative Physiology | |
MENG 22200
|
Cellular Engineering | |
MENG 23510
|
Microfluidics and Its Applications | |
BIOS 20249
|
Genome Informatics: Genome Org, Expression & Transmission | |
One of the following: | 100 | |
BIOS 21306
|
Human Genetics and Evolution | |
BIOS 21360
|
Advanced Molecular Biology | |
BIOS 23258
|
Molecular Evolution I: Fundamentals and Principles | |
BIOS 28407
|
Genomics and Systems Biology | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Molecular Science and Engineering of Polymers and Soft Materials
The plastic in molded bottles and food packaging . . . Synthetic rubber in tires . . . Scratch-resistant coatings that are chemically and thermally stable . . . Bulletproof materials in lightweight vests . . . Super-absorbent materials such as those in diapers . . . Synthetic polymers are ubiquitous in the 21st century, with such engineered materials exhibiting unique properties and enabling novel applications relative to traditional materials. The minor in Molecular Science and Engineering of Polymers and Soft Materials is designed to prepare students to enter diverse fields in the polymer and soft material sciences. A sophisticated understanding of the molecular-level interactions and structure is required to work with polymers and ultimately provides the opportunity to predict and control material behaviors at the macroscale. Students in the minor will study the chemistry, physics, thermophysical properties, modeling, and processing of polymers, as well as other classes of soft materials including liquid crystals and colloids. Applications of polymers and soft matter in lightweight composites, smart or responsive materials, bioinspired and biomedical materials, advanced lithography, and energy-related materials will be examined.
Summary of Requirements for the Minor in Molecular Science and Engineering of Polymers and Soft Materials
MENG 24200 | Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes * | 100 |
MENG 25100 | Introduction to Polymer Science | 100 |
MENG 25130 | Soft Matter Characterization Laboratory | 100 |
One of the following pairs: | 200 | |
MENG 25110
& 25120 |
Polymer Synthesis and Polymer Physics |
|
CHEM 22200
& MENG 25110 |
Organic Chemistry III and Polymer Synthesis |
|
MENG 25500
& 25120 |
Classical Molecular and Materials Modeling and Polymer Physics |
|
One of the following: | 100 | |
MENG 23100
|
Biological Materials | |
MENG 25110
|
Polymer Synthesis | |
MENG 25120
|
Polymer Physics | |
MENG 25140
|
Functional Polymers for Electronics, Photonics, and Energy Technology | |
MENG 25320
|
Electrochemical Principles and Methods | |
MENG 25500
|
Classical Molecular and Materials Modeling | |
PHYS 36700
|
Soft Condensed Matter Phys | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Molecular Engineering of Sustainable Energy and Water Resources
Climate change and finite resources for an ever-growing global population mandate major initiatives on achieving a better and more sustainable future. Access to clean water and the development of sustainable energy technologies are at the heart of this global challenge. The minor in Molecular Engineering of Sustainable Energy and Water Resources is tailored for students interested in gaining a deeper understanding of the science, conservation, and management of energy and water resources. Concepts of emphasis include fundamental electrochemistry, materials and devices for energy conversion and storage (e.g., batteries, solar cells, wind turbines, geothermal), the molecular behavior of water, climate change and its impacts, and energy and water policy.
Summary of Requirements for the Minor in Molecular Engineering of Sustainable Energy and Water Resources
MENG 21500 | Molecular Engineering Transport Phenomena * | 100 |
MENG 25300 | Molecular Science and Engineering of Water | 100 |
MENG 25310 | Energy Storage and Conversion Devices | 100 |
One of the following: | 100 | |
MENG 25320
|
Electrochemical Principles and Methods | |
MENG 25330
|
Materials and Characterization Tools to Address Challenges in Energy and Water | |
Two of the following: | 200 | |
MENG 20300
|
The Science, History, Policy, and Future of Water | |
ENST 21310
|
Water: Economics, Policy and Society | |
ENST 24705
|
Energy: Science, Technology, and Human Usage | |
PBPL 29000
|
Energy and Energy Policy | |
PPHA 51700
|
Energy Policy Practicum | |
ENSC 23900
|
Environmental Chemistry | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Minor Program in Computational Molecular Engineering
The minor in Computational Molecular Engineering will provide students with expertise in mathematics, numerical algorithms, computational methods, and molecular and multiscale modeling techniques. The minor will introduce concepts from materials design, device design, and computational interpretation of experimental data, and provide training in tools for materials modeling ranging from electronic structure-level quantum mechanical calculations to molecular modeling methods at scales ranging from angstroms to meters.
Summary of Requirements for the Minor in Computational Molecular Engineering
MENG 24300 | Molecular Modeling * | 100 |
MENG 31200 | Thermodynamics and Statistical Mechanics | 100 |
MENG 25500 | Classical Molecular and Materials Modeling | 100 |
MENG 25510 | Quantum Molecular and Materials Modeling | 100 |
One of the following: | 100 | |
MENG 23100
|
Biological Materials | |
MENG 25100
|
Introduction to Polymer Science | |
MENG 25120
|
Polymer Physics | |
MENG 25610
|
Applied Scientific Computing in Molecular Engineering | |
MENG 25620
|
Applied Artificial Intelligence for Materials Science and Engineering | |
BCMB 31358
|
Simulation, Modeling, and Computation in Biophysics | |
PHYS 25000
|
Computational Physics | |
One of the following: | 100 | |
CMSC 11800
|
Introduction to Data Science I | |
CMSC 25025
|
Machine Learning and Large-Scale Data Analysis | |
CMSC 25400
|
Machine Learning | |
CMSC 23710
|
Scientific Visualization | |
CMSC 23900
|
Data Visualization | |
TTIC 31020
|
Introduction to Machine Learning | |
Total Units | 600 |
* | For students majoring in Molecular Engineering, this course must be taken as an elective within the major and will not be counted toward minor totals. No substitution is required. |
Additional Requirements for Minoring in Molecular Engineering
Before a student can declare a minor in Molecular Engineering, the student must complete the general education requirements in mathematics, physical sciences, and biological sciences. Following completion of these requirements, students must meet with the Director of Undergraduate Studies for Molecular Engineering, Mark Stoykovich (stoykovich@uchicago.edu), to plan a course of study for the minor program. A student must then receive approval of the minor program on a Consent to Complete a Minor Program form. The signed form must then be returned to the student’s College adviser by the end of the Spring Quarter of the student’s third year. Deviations from the course plan agreed upon in the Consent to Complete a Minor Program form require the approval of Dr. Stoykovich and submission of a revised Consent to Complete a Minor Program form prior to their implementation.
Additional Minors in Molecular Engineering
For those students not majoring in Molecular Engineering or a related field, the College offers two additional minors in Molecular Engineering. The minors complement various major programs and better prepare students for STEM fields, equipping each with basic engineering tools to discover new ways to think about cutting-edge technologies and problem solving.
Minor Program in Molecular Engineering
The minor in Molecular Engineering introduces the technical fundamentals of molecular engineering, including in quantum mechanics, molecular thermodynamics, transport phenomena, and the application of such concepts to advanced technologies. Primarily targeted to students majoring in the physical or biological sciences, this minor provides a strong preparation for careers or postgraduate studies in engineering fields.
Summary of Requirements for the Minor in Molecular Engineering
MENG 21100 | Principles of Engineering Analysis I | 100 |
MENG 21200 | Principles of Engineering Analysis II | 100 |
Two to four of the following: | 200-400 | |
MENG 21300
|
Engineering Quantum Mechanics | |
MENG 21400
|
Molecular Engineering Thermodynamics | |
MENG 21500
|
Molecular Engineering Transport Phenomena | |
MENG 24100
|
Molecular Engineering Thermodynamics of Phase Equilibria | |
MENG 24200
|
Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes | |
MENG 26100
|
Intermediate Quantum Engineering | |
Zero to two of the following: | 000-200 | |
Advanced electives in MENG (courses numbered 22000 or higher)
|
||
Advanced electives selected in consultation with the Director of Undergraduate Studies *
|
||
Total Units | 600 |
* | Students must secure approval before enrolling in courses they wish to use as advanced electives in the minor program. |
Minor Program in Molecular Engineering Technology and Innovation
The minor in Molecular Engineering Technology and Innovation is intended for students majoring in economics, business, policy, or related fields, and presents basic engineering concepts as they relate to evolving technologies, scientific innovation and entrepreneurship, scientific policy, and the broader impacts of engineering in society.
Summary of Requirements for the Minor in Molecular Engineering Technology and Innovation
MENG 20000 | Introduction to Emerging Technologies | 100 |
MENG 20200 | Introduction to Materials Science and Engineering | 100 |
One elective course in MENG selected in consultation with the Director of Undergraduate Studies | 100 | |
Three elective courses selected in consultation with the Director of Undergraduate Studies * | 300 | |
Total Units | 600 |
* | All courses in Molecular Engineering are pre-approved as electives for the minor. The following courses are pre-approved for the minor: BIOS 11140, BUSF 34103, BUSF 34106, BUSF 42703, ECON 22600, ECON 22650, ENST 23900, ENST 24705, ENST 26420, HIPS 17502, HIPS 21301, HIPS 25506, PBPL 21800, PBPL 23100, PBPL 24701, PBPL 29000, PHSC 12400, PHSC 12500. Students must secure approval before enrolling in courses that they wish to use as electives in the minor program and that are not on this pre-approved list. |
Minor Program Requirements for Molecular Engineering and Molecular Engineering Technology and Innovation
Before a student can declare a minor in Molecular Engineering, the student must complete the general education requirements in mathematics, physical sciences, and biological sciences. Following completion of these requirements, students must meet with the Director of Undergraduate Studies for Molecular Engineering, Mark Stoykovich (stoykovich@uchicago.edu), to plan a course of study for the minor program. A student must then receive approval of the minor program on a Consent to Complete a Minor Program form. The signed form must then be returned to the student’s College adviser by the end of the Spring Quarter of the student’s third year. Deviations from the course plan agreed upon in the Consent to Complete a Minor Program form require the approval of Dr. Stoykovich and submission of a revised Consent to Complete a Minor Program form prior to their implementation.
Courses in the minor program may not be (1) double counted with the student’s major(s) or with other minors, or (2) counted toward general education requirements. Courses in the minor must be taken for quality grades, and more than half of the requirements for the minor must be met by registering for courses bearing University of Chicago course numbers.
Molecular Engineering Courses
MENG 20000. Introduction to Emerging Technologies. 100 Units.
This course will examine five emerging technologies (stem cells in regenerative medicine, quantum computing, water purification, new batteries, etc.) over two weeks each. The first of the two weeks will present the basic science underlying the emerging technology; the second of the two weeks will discuss the hurdles that must be addressed successfully to convert a good scientific concept into a commercial product that addresses needs in the market place.
MENG 20200. Introduction to Materials Science and Engineering. 100 Units.
Synthesis, processing and characterization of new materials are the pervasive, fundamental necessities for molecular engineering. Understanding how to design and control the structure and properties of materials at the nanoscale is the essence of our research and education program. This course will provide an introduction to molecularly engineered materials and material systems. The course starts with atomic-level descriptions and means of thinking about the structure of materials, and then builds towards understanding nano- and meso-scale materials architectures and their structure-dependent thermal, electrical, mechanical, and optical properties. Strategies in materials processing (heat treatment, diffusion, self-assembly) to achieve desired structure will also be introduced. In the latter part of the course, applications of the major concepts of the course will be studied in quantum materials, electronic materials, energy-related materials, and biomaterials.
Prerequisite(s): Completion of the general education requirements in mathematics and physical or biological sciences
MENG 20210. ‘Conserving Active Matter’ – Strategies in Contemporary Art (Suzanne Deal Booth Conservation Sem) 100 Units.
Conserving contemporary art is a complex activity. This course raises questions about the goal of conservation in various media (painting, sculpture, and variable media) as well as in artistic movements since the 1960s, when the notion of authenticity and originality shifted. Conservation today is not limited to the treatment of the physical artwork; it demands an open dialogue with the varying stakeholders: the artist, collector, fabricator, curator, gallerist, dealer, shipper, art handler, as well as with other specialized conservators. The course also examines various models of artist estates, archives, and artist interviews, responding to the inevitable consequences of contemporary art without the artist.
Prerequisite(s): This course will be registered only with instructor consent. Consent requests must include why the student is interested in taking the course, any previous experience they have with the course topics, and how they envision contributing toward the conservation initiative’s goal of diversifying the field of conservation and conservation science.
Equivalent Course(s): ARTH 27800, MENG 30210, ARTH 37800, ARCH 27800
MENG 20300. The Science, History, Policy, and Future of Water. 100 Units.
Water is shockingly bizarre in its properties and of unsurpassed importance throughout human history, yet so mundane as to often be invisible in our daily lives. In this course, we will traverse diverse perspectives on water. The journey begins with an exploration of the mysteries of water’s properties on the molecular level, zooming out through its central role at biological and geological scales. Next, we travel through the history of human civilization, highlighting the fundamental part water has played throughout, including the complexities of water policy, privatization, and pricing in today’s world. Attention then turns to technology and innovation, emphasizing the daunting challenges dictated by increasing water stress and a changing climate as well as the enticing opportunities to achieve a secure global water future.
Prerequisite(s): None
Equivalent Course(s): ANTH 22131, HIPS 20301, HIST 25426, GLST 26807, ENST 20300
MENG 20400. Commercializing Products with Molecular Engineering. 100 Units.
Many technologies and products that have been successfully commercialized benefit from engineering at the molecular scale. This course will present case studies of such technologies and products, including those drawn from the fields of pharmaceuticals (e.g., biologics, nanoparticle-based drugs, and excipients for enhanced drug solubility), food products (e.g., Cavamax by Wacker Chemie that applies beta-cyclodextrin for molecular encapsulation to improve flavor solubility), and industrial products (e.g., Febreze Air freshener, sunscreens with UV protection, photographic films, and slurries for polishing surfaces). Each case study will examine: the unmet market need addressed by the product, the science behind the molecular engineering of the technology, the background/history of the technology, and key attributes/decisions made by inventors along the pathway to commercialization. Upon completion of the course, students will be able to understand the overall process for developing a new technology/product, outline the steps to design the key critical-to-quality (CTQ) attributes, describe how to monetize a technology/product, and recognize the avenues available to protect the technology/product or create barriers to entry to the market.
Prerequisite(s): MENG 20000 or MENG 21100
MENG 21100-21200. Principles of Engineering Analysis I and II.
The courses in Engineering Analysis provide a foundation for engineering problem solving and quantitative analysis. Skills in developing mathematical models that describe biological, chemical, or physical systems will be acquired, including defining the system and system boundaries, simplifying complex systems through the application and justification of engineering assumptions, and implementing engineering data. Applied mathematical and computational tools to solve such models will be introduced. Also emphasized will be the topics of dimensions and units, scaling analyses, and data representation and visualization.
MENG 21100. Principles of Engineering Analysis I. 100 Units.
The first quarter of Engineering Analysis introduces engineering students to the derivation and solution of balance equations for intensive properties such as mass, energy, momentum, and charge in a system. Students will develop algebraic, differential, and integral balances for continuous, transient and steady-state processes. Material balances will be considered for systems with multiple inlets/outlets and with recycle, multicomponent mixtures, and systems with phase changes and chemical reactions. Energy balances in open and closed steady-state systems will be introduced, as will mechanical energy and momentum balances of importance in the flow of fluids in the derivation and application of Bernoulli’s equation. Skills in basic structured programming and data visualization in Python will be acquired, and simple algorithm development will be emphasized for numerical methods such as root finding.
Prerequisite(s): PHYS 13300 or PHYS 14300, and CHEM 11300 or CHEM 12300
MENG 21200. Principles of Engineering Analysis II. 100 Units.
The second quarter of Engineering Analysis considers advanced energy balances for isothermal and adiabatic processes, systems with chemical reactions and phase changes, and systems under non-steady state conditions. In addition, the conservation of charge, Kirchhoff’s current and voltage laws, and dynamic systems of charge and electrical energy will be discussed. Throughout the course, students will learn advanced numerical and computational methods in Python for solving systems of linear and non-linear equations, general minimization techniques, optimization strategies, and regression analysis. Numerical integration including the Euler and Runge-Kutta methods, as well as methods for solving ODEs (i.e., initial value problems and boundary value problems), will also be introduced.
Prerequisite(s): MENG 21100 and MATH 18500
MENG 21300. Engineering Quantum Mechanics. 100 Units.
Quantum mechanics is a fundamental physical theory describing the behavior of systems on small length scales, and underlies a variety of basic phenomena in physics, chemistry and biology. It also is the basis of some of the most revolutionary technologies of the 20th century (e.g., the transistor and the laser), and will likely form the basis of even more radical quantum technologies. This course will provide students with a broad introduction to quantum mechanics, and will emphasize both a qualitative and quantitative appreciation of many of its main principles and its relevance to technology and engineering. Topics to be covered include the quantization of light and atomic orbitals, wavefunctions and probability amplitudes, the Schrodinger equation, and the basic quantum mechanics of atoms and molecules. A basic introduction to quantum bits and quantum information technology will also be provided.
Prerequisite(s): PHYS 13300 or 14300, AND MATH 18500
MENG 21400. Molecular Engineering Thermodynamics. 100 Units.
Molecular thermodynamics integrates concepts from classical thermodynamics, statistical mechanics, and chemical physics to describe the properties of matter and behavior of systems at equilibrium. This course introduces thermodynamics for molecular engineers starting with the postulates of thermodynamics and the thermodynamic properties of pure substances. The concept of thermodynamic stability and the molecular origins of phase transitions will be developed to predict the phase diagrams of pure substances. Engineering applications relying on thermodynamic cycles involving flow or phase changes, including engines, heat pumps, and refrigeration, will be analyzed. Finally, an introduction to statistical thermodynamics will be provided to establish the relationship between intermolecular forces and macroscopic properties through the definition of ensembles, probability distribution functions, and partition functions, as well as the consideration of fluctuations in thermodynamic variables.
MENG 21500. Molecular Engineering Transport Phenomena. 100 Units.
This course introduces students to continuum mechanics, with a focus on energy and mass balances. Starting with an overview of the physical and mathematical basis of diffusion, the course will cover definitions of flux of heat and mass, setting up differential equations and boundary conditions that describe mass and energy transport, scaling and nondimensional analysis, and solution methods for common types of problems including unsteady-state problems and systems with chemical reactions.
MENG 21800. Engineering Design I. 100 Units.
MENG 21900. Engineering Design II. 100 Units.
MENG 22100. Quantitative Physiology. 100 Units.
This course will address the physical principles that govern physiological and biological functions at the organ, tissue, and cellular levels through quantitative models. At the organ and tissue levels, topics will include the cardiovascular and pulmonary systems (organ function, oxygen transport, hemorheology, interstitial and lymphatic transport), skeletal mechanics, and physiology of the kidney, intestine, and liver, as well as tumor physiology. At the cellular level, topics of membrane transport, adhesion and migration mechanics; and cytokine and chemokine signaling will be addressed.
MENG 22200. Cellular Engineering. 100 Units.
Cellular engineering is a field that studies cell and molecule structure-function relationships. It is the development and application of engineering approaches and technologies to biological molecules and cells. This course provides a bridge between engineers and biologists that quantitatively study cells and molecules and develop future clinical applications. Topics include fundamental cell and molecular biology; immunology and biochemistry; receptors, ligands, and their interactions; nanotechnology/biomechanics; enzyme kinetics; molecular probes; cellular and molecular imaging; single-cell genomics and proteomics; genetic and protein engineering; and drug delivery and gene delivery.
MENG 22300. Quantitative Systems Biology. 100 Units.
This course aims to provide students with knowledge on the use of modern methods for the analysis, manipulation, and modeling of complex biological systems, and to introduce them to some of the most important applications in quantitative and systems biology. We will first survey theoretical concepts and tools for analysis and modeling of biological systems like biomolecules, gene networks, single cells, and multicellular systems. Concepts from information theory, biochemical networks, control theory, and linear systems will be introduced. Mathematical modeling of biological interactions will be discussed. We will then survey quantitative experimental methods currently used in systems biology. These methods include single cell genomic, transcriptomic, and proteomic analysis techniques, in vivo and in vitro quantitative analysis of cellular and molecular interactions, single molecule methods, live cell imaging, high throughput microfluidic analysis, and gene editing. Finally, we will focus on case studies where the quantitative systems approach made a significant difference in the understanding of fundamental phenomena like signaling, immunity, development, and diseases like infection, autoimmunity, and cancer.
MENG 22400. Bioengineering Kinetics. 100 Units.
This course focuses on the kinetics of biochemical reactions at the molecular level and addresses basic questions at the interface between molecular engineering and cell biology. This course will equip students with the knowledge and tools to quantitatively solve problems in biochemical systems and molecular reactions that are dynamic or at equilibrium.
MENG 23000. Experimental Bioengineering Laboratory. 100 Units.
This course provides a broad knowledge and hands-on experience in bioengineering and biomaterials. The topics to be covered include the design and characterization of materials for biomaterials, cellular engineering, nanomedicine, synthetic vaccines, immunotherapies, drug delivery, tissue engineering, bioimaging, biodiagnostics and biosensors. This course also includes experimental modules for hands-on experience relevant to the topics discussed in the lectures. Students will develop skills and experience relevant to methodologies in bioengineering research. Chromatography, spectroscopy, mechanical testing, particle size analysis, and protein activity assays will be utilized in the laboratory. Students will learn to apply knowledge of bioengineering research tools to design and conduct bioengineering experiments for which they will analyze, interpret, and present the experimental results.
MENG 23100. Biological Materials. 100 Units.
In this course, students will gain an understanding of the science and application of biomaterials, a field that utilizes fundamental principles of materials science with cell biology for applications in therapeutics and diagnostics. The course will introduce the basic classes of biomaterials, considering metals used in medicine, ceramics and biological inorganic materials such as hydroxyapatite, and polymers used in medicine. The basis of protein adsorption modulating biological interactions with these materials will be elaborated. Examples to be covered in the course will include polymers used in drug delivery, polymers used in protein therapeutics, polymers used in degradable biomaterial implants, polymers used in biodiagnostics, and hybrid and polymeric nanomaterials used as bioactives and bioactive carriers. An emphasis in the course will be placed on bioactive materials development. Students will be assessed through in-class discussions, take-home assignments and exams, and an end-of-term project on a topic of the student’s choice.
MENG 23110. Stem Cell Biology, Regeneration, and Disease Modeling. 100 Units.
In this course, students will gain an understanding of the science and application of tissue engineering, a field that seeks to develop technologies for restoring lost function in diseased or damaged tissues and organs. The course will first introduce the underlying cellular and molecular components and processes relevant to tissue engineering: extracellular matrices, cell/matrix interactions such as adhesion and migration, growth factor biology, stem cell biology, inflammation, and innate immunity. The course will then discuss current approaches for engineering a variety of tissues, including bone and musculoskeletal tissues, vascular tissues, skin, nerve, and pancreas. Students will be assessed through in-class discussions, take-home assignments and exams, and an end-of-term project on a topic of the student’s choice.
MENG 23120. The Structural Basis of Biomolecular Engineering. 100 Units.
In this highly practical course, students will learn different approaches to interrogate the structure-function relationship of proteins. Essential skills in identifying related protein sequences, performing multiple sequence alignments, and visualizing and interpreting conservation in the context of available structures will be acquired. The most basic method of biomolecular engineering is based on rationale design which uses such knowledge of sequence and structure to predict or explore changes in function in a low throughput manner. Advanced methods that employ evolutionary platforms, such as phage-, ribosome-, and yeast display, will also be introduced for screening large libraries of biomolecules to find variants with a specific function of interest. Additional biomolecular engineering topics to be covered may include computational tools to model and design proteins, protein fusions, enzymatic or chemical modifications to change function, and pharmacokinetics. Students will be assessed through in-class discussion, take-home assignments, exams, and an end-of-term project chosen by the student with approval from the instructor(s).
MENG 23130. Proteomics and Genomics in Biomolecular Engineering. 100 Units.
Modern genomic and proteomic technologies are transforming the analysis and engineering of biological systems. One part of the course will introduce the molecular biology of genomics, including how and why next-generation sequencing is used to measure DNA, RNA, and epigenetic patterns. In addition to experimental tools, it will cover key computational concepts for transforming raw genomic data into biologically meaningful data, as well as the application of those results to analyze biological systems. Specific topics will vary but will include single-cell RNA-sequencing and its analysis in different settings. The other part of the course will focus on technologies that enable the identification of proteins and their dysregulation in disease. Examples include mass spectrometry techniques to determine the exact number of proteins in cells, as well as techniques that identify the types and locations of post-translational protein modifications, such as histone methylation, that are frequently associated with diseases such as cancer. Additionally, the course will review methods to discover protein-protein interactions using computational and experimental screening methods. Student assessments will be made through in-class discussion, take-home assignments, exams, and an end-of-term project chosen by the student with approval from the instructor(s).
MENG 23140. Biodiagnostics and Biosensors. 100 Units.
This course focuses on the biological and chemical interactions that are important for the diagnosis of diseases and the design of new assays. The principles and mechanisms of molecular diagnostics and biosensors, as well as their applications in disease diagnosis, will be discussed. Bioanalytical methods including electrochemical, optical, chemical separation, and spectroscopic will be described. Surface functionalization and biomolecular interactions will be presented for the development of protein and DNA based biosensor applications. The goals for the course are to introduce the fundamental mechanisms of bioanalytical methods/tools, examples of specific methods for diagnostic purposes, and analytical methods necessary for developing new precision medicine tools.
MENG 23150. Nanomedicine. 100 Units.
This course focuses on the applications of nanotechnology in medicine. The chemical, physical and biological features of the nanomaterials will be discussed for applications in medicine. A survey of concepts in therapeutic drug delivery methods, diagnostic imaging agents and cell-materials interactions will be discussed.
MENG 23200. Principles of Immunology. 100 Units.
In this course students will gain a comprehensive understanding of the essential principles of immunology. The course will introduce the concept of innate immunity and pattern recognition and how antigen is processed for presentation to the immune system. We will examine how antigen presentation links innate and adaptive immunity. We will then discuss the two arms of adaptive immunity (humoral and cellular) in detail from their development to effector stages. In the last section of the course we will discuss some key aspects of immune system function including immunological memory and vaccination, immunological tolerance and its failure (autoimmunity/allergy), and mucosal immunology and the microbiome. Students will present primary articles related to the topics discussed in class in a weekly discussion section. The course will be graded on class participation, quizzes, a midterm, and a final essay-based exam.
MENG 23210. Fundamentals and Applications of the Human Microbiota. 100 Units.
Thousands of microbes colonize the human body to collectively establish the human microbiota. Research findings over the past two decades have led to a growing appreciation of the importance of the microbiota in various facets of human health. This course will explore the human microbiota through a critical review of the primary scientific literature. The first portion of the course will cover distinct ways by which the human microbiota impacts mammalian health. The second part of the course will focus on established and developing microbiota-targeting biotechnologies. Students will leave the course with a general understanding of the current state of human microbiota research and its therapeutic and diagnostic applications.
MENG 23300. Quantitative Immunobiology. 100 Units.
The science of immunology was born at the end of the 19th century as a discipline focused on the body’s defenses against infection. The following 120+ years has led to the discovery of a myriad of cellular and molecular players in immunity, placing the immune system alongside the most complex systems such as Earth’s global climate and the human brain. The functions and malfunctions of the immune system have been implicated in virtually all human diseases. It is thought that cracking the complexity of the immune system will help manipulate and engineer it against some of the most vexing diseases of our times such as AIDS and cancer. To tackle this complexity, immunology in the 21st century – similar to much of the biological sciences – is growing closer to mathematics and data sciences, physics, chemistry and engineering. A central challenge is to use the wealth of large datasets generated by modern day measurement tools in biology to create knowledge, and ultimately predictive models of how the immune system works and can be manipulated. The goal of this course is to introduce motivated students to the quantitative approaches and reasoning applied to fundamental questions in immunology.
MENG 23310. Immunoengineering Laboratory. 100 Units.
The goal of this laboratory course is to provide students with an original and hands-on research experience in the fields of immunoengineering and synthetic immunology, whereby new molecules will be designed and tested by students in the lab to probe or control immune processes. Specifically, students will study how newly discovered cancer vaccines work. The course will cover wet lab techniques to manipulate and analyze DNA, proteins, and cells, including next-generation sequencing, genome editing, cellular imaging, and nanobodies. In addition, computational tools will be used for processing and analyzing the data generated by students during class. The outcome of students’ research during this class will help decipher the inner workings of successful anti-tumor vaccines, which is important to inform future cancer immunotherapies
MENG 23330. Immunogenomics II: Data Science in Systems Immunology. 100 Units.
This course presents essential concepts in genomic data science and trains students to apply the concepts in immunological contexts. The course encourages students to think independently about genomic analyses. Students will gain an understanding of how to use basic statistics, linear algebra, and computation to explore, analyze, and interpret published RNA-sequencing data (bulk and single-cell) and immune-cell receptor sequencing data. Student performance will be assessed through in-class discussions, take-home assignments and exams, and an end-of-term final project of the student’s choice.
MENG 23500. Synthetic Biology. 100 Units.
The objective of this course is to provide an overview of the fundamentals of synthetic biology by exploration of published and primary literature. Synthetic biology is an interdisciplinary area that involves the application of engineering principles to biology. It aims at the (re-)design and fabrication of biological components and systems that do not already exist in the natural world. Our goal in the course will be to examine how to apply design principles to biological systems. This will require understanding how biological systems operate, what design principles are successful in biology, and a survey of current approaches in the field to tackle these challenges. Topics will include genetic manipulation, pathway engineering, protein design, cellular engineering, and tools for information input and output in biological systems.
MENG 23510. Microfluidics and Its Applications. 100 Units.
Precision control of fluids at the micrometer scale (hence microfluidics) provides unprecedented capabilities in manipulation and analysis of cells and proteins. Moreover, fluids and particles behave in fundamentally different ways when confined to small dimensions, making microfluidics an interesting topic of basic research. This course aims to provide students with theoretical knowledge and practical skills on the use of microfluidics for the manipulation and analysis of physical, chemical, and biological systems. We will first survey theoretical concepts regarding microfluidics. We will then focus on design considerations and fabrication methods for multi-layer microfluidic chips using PDMS soft-lithography. We will learn how to fabricate, multiplex, and control PDMS membrane valves and integrate them into high-throughput analytical systems. We will survey recent developments in microfluidics and its scientific and industrial applications. Biological systems analysis in cell sorting, culture, cell signaling, single molecule detection, digital nucleic acid and protein quantification, and biosensing are some of the applications we will cover. This course will have a laboratory component where students will design, fabricate, and use microfluidic devices and therefore acquire hands-on skills in microfluidic engineering.
MENG 24100. Molecular Engineering Thermodynamics of Phase Equilibria. 100 Units.
This course addresses the thermodynamics of mixtures and their phase equilibria (e.g., vapor-liquid, liquid-liquid, and solid-liquid equilibria). It includes an introduction to the theory of phase equilibria and stability for mixtures, the concepts of activity and fugacity for describing non-ideal systems, an introduction to molecular models and the prediction of thermodynamic properties from such models, as well as the importance of such topics for engineering applications including separation processes such as distillation, extraction, and membrane osmosis. The course has a laboratory component that includes characterizing vapor-liquid equilibria in distillation processes, experimentation with surface adsorption, and measurements of solubility. (Lab)
MENG 24200. Molecular Transport Phenomena II: Fluid Flow and Convective Transport Processes. 100 Units.
This course will cover topics related to fluid flow and convective mass and heat transport relevant to describing chemical and biological systems. First, students learn how bulk fluid flow (velocity) is related to the transport of momentum through the application of the Navier-Stokes equation and boundary conditions. Second, fluid flow is described to understand the role of viscous forces on the formation of boundary layers near surfaces. The primary focus is on the laminar flow of Newtonian fluids, but relevant conditions leading to turbulent flow are touched upon. Standard examples such as Poiseuille flow, falling films, and flow around a sphere are covered. Third, the concepts of bulk fluid flow and boundary layer are extended to describe convective mass (concentration) and heat (temperature) transport processes. Students learn how fluid motion contributes to the flux of chemical species and the transfer of heat. Lastly, the course has a laboratory component that reinforces fundamental concepts covered in the lectures. Laboratory exercises include measurement of viscosity, Hagen-Poiseuille flow in tubes, and fabrication and assembly of microfluidic devices.
MENG 24300. Molecular Modeling. 100 Units.
This course will introduce students to the methods of quantum and classical molecular modeling and simulation. The course will be delivered primarily through project-based learning using popular quantum mechanical (e.g., Quantum Espresso) and classical mechanical (e.g., Gromacs, LAMMPS) simulation packages. Students will also develop proficiency in the command line interface and shell scripting. The course will prioritize the physical principles underlying the methods to confer an understanding of their applicability and limitations, and hands-on immersive praxis to give students the confidence and expertise to independently use these tools.
MENG 24400. Chemical Kinetics and Reaction Engineering. 100 Units.
This course introduces the fundamental concepts of reaction kinetics, from the molecular mechanisms and reaction rates of chemical reactions to its applied aspects in the reaction engineering of complex chemical systems. Course topics will include elementary reactions and rate laws, collision theory, transition state theory, reaction dynamics, complex reacting systems, the steady-state hypothesis, heterogeneous catalysis, and diffusion-limited systems. The course will draw upon examples of industrial-scale chemical processes to consider the impact of kinetics on the engineering of batch and continuous-flow reactors.
MENG 25100. Introduction to Polymer Science. 100 Units.
This course introduces the basics of polymer materials and their behavior and properties. The course will cover a general overview to polymers, basic terminology and definitions, their classification, and their applications. The mechanistic and kinetic behavior of the major classes of polymerization reactions (step-growth, chain addition, and “living” polymerizations) will be introduced with respect to control over polymer structure/architecture, size, and properties. The course will also discuss polymer properties, polymer thermodynamics, and basic structure-property relationships that provide polymers with their unique characteristics compared to small molecules. Techniques for characterizing the chemical and physical properties of polymer solutions will be introduced, including osmometry, viscometry, and gel permeation chromatography.
MENG 25110. Polymer Synthesis. 100 Units.
This course introduces the most important polymerization reactions, focusing on their reaction mechanisms and kinetic aspects. Topics include free radical and ionic chain polymerization, step-growth polymerization, ring-opening, insertion, controlled living polymerization, crosslinking, copolymerization, and chemical modification of preformed polymers.
MENG 25120. Polymer Physics. 100 Units.
This course is an advanced introduction to polymer physics taught at a level suitable for senior undergraduates and graduate students in STEM fields. Topics that will be covered include the statistics and conformations of linear chain molecules; polymer brushes; thermodynamics and dynamics of polymers, polymer blends and polymer solutions; phase equilibria; networks, gels, and rubber elasticity; linear viscoelasticity; and thermal and mechanical properties.
MENG 25130. Soft Matter Characterization Laboratory. 100 Units.
The goal of this course is to train students in the fundamental experimental approaches to polymer and soft materials characterization. The course will cover both the theory and practice of techniques focused on three themes: molar mass determination (size exclusion chromatography, laser light scattering, NMR spectroscopy); morphology and structure (x-ray scattering, electron microscopy, atomic force microscopy); and thermo-mechanical properties (calorimetry, thermogravimetry, dynamic mechanical analysis, rheometry, tensile testing). Contextual application of these characterization techniques to modern research problems will be introduced. Through this course, students will develop foundational experimental skills necessary for addressing research challenges in modern polymer and soft materials science and engineering.
MENG 25140. Functional Polymers for Electronics, Photonics, and Energy Technology. 100 Units.
In this course, students will learn the fundamental principles of the functional properties of polymers that enable their use in electronics, photonics and energy technology. The topics mainly include electron and ion transport properties, relationships between chemical structures and energy band structures, photo-excitation properties, luminescent properties, thermoelectric property, ferroelectric and ferromagnetic properties, as well as the associated device categories of organic field-effect transistors, organic light-emitting diodes, lasers, electrochromic devices, photovoltaic cells, and photodetectors.
MENG 25220. Molecular Gastronomy and Engineering Food as Soft Matter. 100 Units.
We will focus on understanding and analyzing food as soft matter and molecular gastronomy: the physicochemical basis for designing foods. Imagine bread, butter, wine, cheese, ice cream, chocolates, mayo, frothy beers, milk, yogurt, sushi, meats, cotton candy, burgers, fondue, chips, cookies, cakes, and champagne. We will study the science of cooking and molecular gastronomy, food production, processing, and consumption by highlighting concepts from statistical thermodynamics, macromolecular and soft matter physics, interfacial science, fluid mechanics and rheology (science of deformation & flow). Many food materials are rheologically-complex fluids that can be modeled as multicomponent colloidal dispersions with a continuous liquid phase containing dispersed proteins, polysaccharides, drops, bubbles, particles, and self-assembled structures (like micelles). We will discuss the influence of the dispersed and the continuous phases and of ingredients like salt, sugar, fat, animal proteins, and gluten on stability, microstructure, rheology, and heuristic properties like dispensing behavior, stickiness, thickening, stringiness, softness, creaminess, mouthfeel, texture, foamability, and chewability. Significant emphasis will be on understanding current foods to develop the roadmap for sustainable, cost-effective, healthier, and tasteful alternatives, including meat and dairy alternatives with plant-based ingredients.
MENG 25300. Molecular Science and Engineering of Water. 100 Units.
This course will cover the properties of the water molecule, hydrogen bonding, clusters, supercritical water, condensed phases, solutions, confined and interfacial water, clathrates, and nucleation. In addition, methods of water purification, water splitting and fuel cells, water in atmospheric and climate science, and water in biology, health and medicine will be discussed.
MENG 25310. Energy Storage and Conversion Devices. 100 Units.
Addressing the challenges of a sustainable energy future requires a foundational knowledge of current and emerging energy conversion and storage technologies. Energy conversion devices such as solar cells and fuel cells to energy storage systems such as lithium-ion batteries and redox-flow batteries will be covered. Devices related to carbon capture and conversion in addition to ‘green fuels’ will be introduced as well. Applying basic principles of chemistry, thermodynamics, and transport phenomena, this course will provide a deep understanding of the operational mechanisms, resources, and material properties of each device and the synergies between them.
MENG 25320. Electrochemical Principles and Methods. 100 Units.
This course will cover topics related to basic electrochemical principles, methodologies, and systems. In particular, students will be given an overview of fundamental concepts related to electrochemical potential, electric double layer, electrode kinetics, and mass transport processes. In addition, the application of key electrochemical experimental methods will be covered. A few examples include cyclic voltammetry, AC impedance spectroscopy, and the rotating disk electrode. Throughout the course, students will apply basics principles of thermodynamics, kinetics, and transport phenomena. Lastly, a brief overview of traditional electrochemical systems and emerging technologies related to energy storage and conversion (e.g., lithium-ion batteries, flow batteries, and fuel cells) and bioelectronics applications will be discussed.
MENG 25330. Materials and Characterization Tools to Address Challenges in Energy and Water. 100 Units.
The development of new materials, as well as understanding the materials’ structure and dynamics, are at the heart of addressing the challenges in energy and water technologies. This course will introduce students to the design and development of advanced functional materials that enable energy and water related technologies. The importance of all classes of materials spanning metals, alloys, ceramics, polymers, glasses, and their combinations as composite materials will be covered. To understand material properties and function, students will learn about essential characterization tools including microscopy, spectroscopy and mechanical testing techniques. In addition, the course will convey the importance of advanced characterization tools available at X-ray and neutron facilities that are essential in revealing unique physical properties.
MENG 25500. Classical Molecular and Materials Modeling. 100 Units.
This course will introduce students to the methods of molecular modeling. The topics covered will include an introduction to the origin of molecular forces, a brief introduction to statistical mechanics and ensemble methods, and an introduction to molecular dynamics and Monte Carlo simulations. The course will also cover elements of advanced sampling techniques, including parallel tempering, umbrella sampling, and other common biased sampling approaches. Students will also establish expertise in scientific programming in Python 3.
MENG 25510. Quantum Molecular and Materials Modeling. 100 Units.
Quantum mechanical methods, including quantum chemistry, density functional theory (DFT), and many body perturbation theory, for simulating the properties of molecules and materials will be explored in this course. Numerical algorithms and techniques will be introduced that allow for solution of approximate forms of the Schroedinger and Boltzmann Equations that model structural and transport properties of molecules and materials. The coupling of DFT with molecular dynamics will be detailed for determining finite temperature properties. Coupling of DFT with spin Hamiltonians to study dynamical spin correlations in materials will also be described. Examples of the application of quantum mechanical methods to materials for energy conversion and quantum information technologies will be provided.
MENG 25610. Applied Scientific Computing in Molecular Engineering. 100 Units.
This course provides hands-on practical training in scientific computing with a focus on applications to molecular engineering. The first third of the course will provide training in core programming concepts, including a broad introduction to Python programming and use of key scientific libraries. The second third of the course will cover advanced programming topics in CPU and GPU parallel programming and quantum computing, exploring their use through practical examples drawn from a range of scientific and engineering disciplines. The final portion of the class will engage particular applications in computational molecular engineering, including electronic structure calculations of molecules and materials, highlighting the use of modern computing platforms to enable modeling of complex phenomena at unprecedented scales. Students will develop proficiency in making effective use of the diverse landscape of programming models, open-source tools, and computing architectures for high performance computing. Hands-on immersive praxis, mostly using electronic notebooks, will introduce students to the efficient use of several computational resources such as pre-exascale and quantum computers, with the goal of providing them with the confidence and expertise to independently use these tools.
MENG 25620. Applied Artificial Intelligence for Materials Science and Engineering. 100 Units.
Machine learning and other artificial intelligence tools are quickly becoming commonplace in the computational design of materials. This course is intended to introduce the concepts and practical skills needed to employ machine learning techniques across many areas of computational materials science. The course will cover topics including the management of materials data, the creation of surrogate models for costly computations, building predictive models for material properties without known physical models, and using AI to enhance characterization tools. The content of the course will focus both on the theoretical underpinnings of these technologies, as well as the practical skills needed for successful use of AI in an applied setting. Particular application areas include machine learning tools for atomistic simulations, convolutional neural networks for materials image analysis, Bayesian techniques for material property estimation, and generative methods for molecular design.
MENG 25630. Design, Processing, and Scale-Up of Advanced Materials. 100 Units.
The course will cover the scientific background needed to design and optimize advanced materials for scalable synthesis. We will introduce the physics-based understanding needed to simulate the non-equilibrium conditions in reacting gas-phase and complex fluids. The course will use in situ measurement data for validation and acceleration of simulations will allow students to experiment and build the conceptual connections to the background theories and simulations. In particular, we will cover examples of scalable material synthesis such as gas-phase combustion synthesis of lithium ion battery materials, atomic layer deposition (ALD) for porous membranes and coatings, Taylor Vortex Reactors (TVR) for the synthesis of industrial catalysts, additive manufacturing of metals using laser sintering, and microfluidic continuous flow reactors for the synthesis of organic crystals for pharmaceutical applications. Data generated using sensors, imaging cameras, spectroscopic probes, and Argonne APS measurements will be combined with machine-learning approaches for decision making, process optimization and steering of synthesis conditions. This course will include optional hands-on sessions at the Argonne National Laboratory’s Materials Engineering and Research Facility, and allow the students to leverage the Manufacturing Data and Machine Learning (MDML) platform and Argonne Leadership Computing Facility (ALCF) supercomputing environment for physics based simulations.
MENG 26100-26110. Intermediate Quantum Engineering I-II.
This sequence of courses on quantum engineering provide an introduction to the formalism of quantum mechanics as relevant to quantum engineering and information applications, as well as advanced topics in quantum chemistry and materials modeling.
MENG 26100. Intermediate Quantum Engineering. 100 Units.
This course will provide an introduction to the formalism of quantum mechanics as relevant to quantum engineering and information applications. The emphasis will be on Hilbert space, operators and eigenstates, as applied to a variety of systems. Topics to be covered include the quantum harmonic oscillator, angular momentum, spin, and time-independent perturbation theory. Applications to quantum information processing and materials physics will be stressed.
MENG 26110. Intermediate Quantum Engineering II. 100 Units.
This course will discuss more advanced topics in quantum engineering and quantum chemistry. Topics to be covered include identical particles, second quantization, the variational principle, time-dependent perturbation theory, the Born-Oppenheimer approximation, and the Hartree-Fock method. The course will also introduce the basic principles of quantum mechanical materials modeling, including methods that utilize quantum processors.
MENG 26200. QuantumLab. 100 Units.
The QuantumLab course is an advanced laboratory course where students gain experience in a broad range of quantum technologies and instrumentation. The experiments reflect current research directions of quantum science and the University of Chicago’s quantum program. Students will perform these experiments in small groups and study quantum effects in different quantum systems, including photons, cold atoms, quantum circuits and materials, and defect-centers. Furthermore, participants will acquire experience in instrumentation, electronics, optics, data taking and analysis.
MENG 26300. Engineering Electrodynamics. 100 Units.
This is an advanced course in electromagnetism with an engineering focus. Requires good preparation in freshman-level, calculus-based, electrostatics and magnetostatics; also preparation in vector calculus.
MENG 26400. Quantum Computation. 100 Units.
This course provides an introduction to the fundamentals of quantum information to students who have not had training in quantum computing or quantum information theory. Some knowledge of linear algebra is expected, including matrix multiplication, matrix inversion, and eigenvector-eigenvalue problems. Students will learn how to carry out calculations and gain a fundamental grasp of topics that will include some or all of: entanglement, teleportation, quantum algorithms, cryptography, and error correction.
MENG 26500. Foundations of Quantum Optics. 100 Units.
Quantum optics seeks to illuminate the fundamental quantum mechanics of the interaction of light and matter. These principles can form the basis for quantum technologies in areas such as cryptography, computation, and metrology. This course provides a foundation in the fundamental principles and applications of quantum optics. Topics to be discussed may include Fermi’s Golden Rule, interaction of two-level atoms and light, spontaneous emission, Rabi oscillations, classical and non-classical photon statistics, beam splitters, atom cavity interaction, vacuum-Rabi splitting, coherence, entanglement, and teleportation. The course will assume that students are comfortable with single-particle quantum mechanics at the level of a typical introductory graduate-level course.
MENG 26510. Optics and Photonics. 100 Units.
Electromagnetic radiation in the optical spectrum, or light, plays a fundamentally important role in modern physics and engineering. This introductory course covers the basic properties of light, its propagation in and interactions with matter, and techniques for generating, guiding, and detecting light. Photonic technologies including lasers, optical fibers, integrated optics, optoelectronic devices, and optical modulators will be introduced with selected demonstrations of real-world devices.
MENG 26600. Electronic and Quantum Materials for Technology. 100 Units.
This is a one-quarter introductory course on the science and engineering of electronic and quantum materials. The intended audience is upper-level undergraduate students and first-year graduate students in Molecular Engineering and other related fields, including Chemistry and Physics. We will learn the basics of electrical and optical properties of electronic materials, including semiconductors, metals, and insulators starting from a simple band picture, and will discuss how these materials enable modern electronic and optoelectronic devices and circuitry. We will also explore the modern synthesis techniques for these materials and the effects of reduced dimensions and emergent quantum properties. No comprehensive exposure to quantum mechanics, thermodynamics, or advanced mathematical skills will be assumed, even though working knowledge of these topics will be helpful.
MENG 26610. Science of Materials. 100 Units.
This is a course covering the principles behind both traditional electronic materials and quantum materials, and connecting the knowledge to various modern applications. It covers basic topics such as Bravais lattice, real and reciprocal space, band theory, classification of materials, physical properties of metals, semiconductors, and insulators. Quantum materials including superconductors, topological materials, and quantum defects will be introduced.
MENG 26620. Physics of Solid State Semiconductor Devices. 100 Units.
This course covers the fundamental concepts needed to understand nanoelectronic solid state semiconductor devices. After an overview of the basic properties of semiconductors and electronic transport in semiconductors, we will explore the device physics behind some of the major semiconductor devices that have changed our lives. These include the p-n junction diode, the metal-oxide-semiconductor transistor (MOSFET), the photovoltaics cell (solar cell), the semiconductor light emitting diode (LED) and injection laser, dynamic random access memory (DRAM), and Flash memory. These devices collectively form the backbone behind all computing, communications, and sensing systems used today.
MENG 26630. Introduction to Nanofabrication. 100 Units.
This course will cover the fundamentals of nanofabrication from a practical viewpoint and will be useful for students planning to pursue research involving semiconductor processing technology, as well as broader topics such as microelectromechanical systems (MEMS), quantum devices, optoelectronics, and microfluidics. This course will cover the theory and practice of lithographic patterning; physical and chemical vapor deposition; reactive plasma etching; wet chemical processing; characterization techniques; and other special topics related to state-of-the-art processes used in the research and development of nanoscale devices. A solid grounding in introductory chemistry and physics is expected.
MENG 27300. Experimental Techniques and Advanced Instrumentation. 100 Units.
This course aims to provide students with a knowledge of state-of-the-art experimental measurement techniques and laboratory instrumentation for applications in broad scientific research environments, as well as industrial and general engineering practice. Topics include atomic-scale structural and imaging methods, electronic transport in low dimensional matter, magnetic and optical characterization of materials. Basic concepts in electronic measurement such as lock-in amplifiers, spectrum and network analysis, noise reduction techniques, cryogenics, thermometry, vacuum technology, as well as statistical analysis and fitting of data will also be discussed.
MENG 29700. Undergraduate Research for Molecular Engineering. 100 Units.
IME faculty offer one-quarter research experiences for interested MENG students. A quality grade will be given based on performance in this course. In order to assign a quality grade, an agreement between the sponsoring IME faculty member and each student will be made that includes: (1) the content and scope of the project, (2) expectations for time commitment, (3) a well-defined work plan with timelines for particular experiments or calculations to be accomplished, and (4) a summary of academic goals such as demonstrating knowledge of the literature and developing communication skills (e.g., through presentations at group meetings).
Chicago Pre Med Majors – Psychology
Program of Study
Psychology is the study of the mental states and processes that give rise to behavior. It seeks to understand the basic mechanisms and functions of perception, cognition, emotion, and attitudes, their development, and their role in guiding behavior. Although it focuses on the level of the individual, individual behavior depends on the social relationships and structures in which people are embedded and the biological systems of which we are comprised. Thus, psychological study encompasses a broad set of topics that overlap with a number of disciplines across the social and biological sciences. The requirements of the major are designed to acquaint students with the research methods psychologists use and to provide a foundation of core knowledge covering the major areas of psychology. This broad foundation allows students to pursue a more advanced understanding of subfields related to their own particular interests and goals for the major. The program may serve as preparation for graduate work in psychology or related fields (e.g., neuroscience, education), as well as for students interested in careers in social work, public policy, business, or medicine. Students are encouraged to become actively engaged in research in the department and should consult with the director of undergraduate research about their interests as early as possible.
Program Requirements
Although no special application is required for admission to the major, majors are required to subscribe to the Psychology Majors Listhost at lists.uchicago.edu/web/info/psychology-majors. The listhost is the primary means of communication between the program and its majors or students interested in being majors. We use it to notify students of events relevant to psychology majors, such as research opportunities, job postings, fellowship announcements, and any changes in the course schedule, or curriculum updates.
For psychology students, a maximum of three courses can be transferred into the major from outside of the University of Chicago.
Statistics/Methodology Sequence (must be completed by end of third year)
By the end of their third year, psychology majors are required to complete PSYC 20200 Psychological Research Methods and one of the following courses: PSYC 20250 Introduction to Statistical Concepts and Methods or STAT 22000 Statistical Methods and Applications. It is strongly recommended that these courses be taken as early as possible in a student’s training as they provide foundational concepts that facilitate understanding of subject area courses. These two courses cover the conceptual and methodological issues (PSYC 20200) and the statistical methods (PSYC 20250, STAT 22000) used in psychological science. PSYC 20200 is typically taught in the Autumn Quarter and PSYC 20250 in the Winter Quarter. We advise students to take PSYC 20200 Psychological Research Methods prior to taking statistics, but either order is acceptable.
Beginning with the Class of 2019, students with AP examination credit for STAT 22000 Statistical Methods and Applications may not count that credit toward the major and should instead replace that requirement with a higher-level statistics course or an additional psychology elective. Students interested in graduate programs in psychology or other empirical sciences are strongly encouraged to take a higher level statistics course.
Breadth Requirement
Students are required to take four of the following five courses, each of which will be offered every year:
PSYC 20300 | Biological Psychology | 100 |
PSYC 20400 | Cognitive Psychology | 100 |
PSYC 20500 | Developmental Psychology | 100 |
PSYC 20600 | Social Psychology | 100 |
PSYC 20700 | Sensation and Perception | 100 |
Additional Courses
At least six additional courses (for a total of twelve in the major) must be chosen from among the courses offered by the Department of Psychology. Courses without a 20000-level PSYC number must be approved by the Undergraduate Student Affairs and Curriculum Committee; petitions must be submitted to the department’s student affairs administrator. Only one independent study course can count toward the twelve courses required of students who are majoring in psychology (PSYC 29200 Undergrad Rdgs: Psychology or PSYC 29700 Undergraduate Research in Psychology). In addition to the six electives, students pursuing honors in psychology must also take the PSYC 29800 Honors Seminar: Psychology. Independent study courses can be taken for P/F grading, but all other courses must be taken for a quality grade. NOTE: Before registering for an elective, students should confirm that they have met any prerequisites for the course.
Research
Students are strongly encouraged to gain additional research experience by working on a research project under the guidance of a faculty member. For more information on getting involved in research, please see the section on Professional and Academic Development or contact the director of the Undergraduate Research Initiative in Psychology.
Calculus
Students are required to take two quarters of calculus as part of the College general education requirements.
Summary of Requirements
GENERAL EDUCATION | ||
MATH 13100-13200 | Elementary Functions and Calculus I-II (or higher) † | 200 |
Total Units | 200 |
MAJOR | ||
PSYC 20200 | Psychological Research Methods (by end of third year) | 100 |
One of the following (by end of third year): * | 100 | |
PSYC 20250
|
Introduction to Statistical Concepts and Methods | |
STAT 22000
|
Statistical Methods and Applications | |
Four of the following: | 400 | |
PSYC 20300
|
Biological Psychology | |
PSYC 20400
|
Cognitive Psychology | |
PSYC 20500
|
Developmental Psychology | |
PSYC 20600
|
Social Psychology | |
PSYC 20700
|
Sensation and Perception | |
Six electives + | 600 | |
Total Units | 1200 |
† | Credit may be granted by examination. |
* | Examination credit for PSYC 20250 Introduction to Statistical Concepts and Methods or STAT 22000 Statistical Methods and Applications will not count toward the requirements for the major. Students with credit for PSYC 20250 or STAT 22000 should replace that requirement with a higher level Statistics course or an additional psychology elective. |
+ | Courses without a 20000-level PSYC number must be approved by the Undergraduate Student Affairs and Curriculum Committee; petitions must be submitted to the department’s student affairs administrator. |
Honors
To qualify for honors, students must meet the following requirements:
- Students must have a GPA of at least 3.0 overall, and a GPA of at least 3.5 in the major by the beginning of the quarter in which they intend to graduate.
- Students should arrange to carry out a research project with a faculty advisor from the Department of Psychology and submit a scientific report of this research for an honors thesis. Papers must represent a more substantial treatment of the research topic than the average term paper and should be designed to contribute to scholarship in the field. Honors theses must be approved by the faculty advisor and a reader. Readers must have a PhD and should be jointly agreed upon by the student and faculty advisor.
- Students are required to take PSYC 29800 Honors Seminar: Psychology in Winter Quarter of their third or fourth year. This is in addition to the twelve required courses for the major. It is expected that students will be actively working on the thesis project during the quarter they are taking the honors research seminar.
- Students are required to present their findings in Spring Quarter of their fourth year at an honors day celebration.
- For more guidance on honors projects, visit psychology.uchicago.edu/content/honors.
Students pursuing honors in more than one major should note that:
- The student’s thesis adviser for psychology cannot be the same person as the student’s thesis adviser for the second major.
- The student must meet all the requirements listed in the preceding Honors section, including taking the Honors Seminar and presenting at an honors day celebration.
Professional and Academic Development
The undergraduate studies program runs a series of co-curricular events throughout the year to foster students’ professional and academic development. Programming takes many forms, including informational meetings regarding the undergraduate program, guest speaker career panels, specialized workshops, conference field trips, and informal receptions. For a list of events currently planned, please visit psychology.uchicago.edu/content/professional-academic-development-events.
Specialized Courses of Study
Faculty members and the director of undergraduate studies are available to help individual students design a specialized course of study within psychology. For example, particular course sequences within and outside of psychology may be designed for students who wish to pursue specializations in particular areas. These areas include, but are not limited to, cognitive neuroscience, language and communication, computational psychology, behavioral neuroscience and endocrinology, sensation and perception, and cultural psychology.
Earl R. Franklin Research Fellowship
The Earl R. Franklin Research Fellowship is awarded to select third-year students who are majoring in psychology. It provides financial support during the summer before their fourth year to carry out psychological research that will be continued as a senior honors project. Applications, which are submitted at the beginning of Spring Quarter, include a research proposal, personal statement, transcript, and letter of recommendation.
Psychology Courses
PSYC 20200. Psychological Research Methods. 100 Units.
This course introduces concepts and methods used in behavioral research. Topics include the nature of behavioral research, testing of research ideas, quantitative and qualitative techniques of data collection, artifacts in behavioral research, analyzing and interpreting research data, and ethical considerations in research.
PSYC 20250. Introduction to Statistical Concepts and Methods. 100 Units.
Statistical techniques offer psychologists a way to build scientific theories from observations we make in the laboratory or in the world at large. As such, the ability to apply and interpret statistics in psychological research represents a foundational and necessary skill. This course will survey statistical techniques commonly used in psychological research. Attention will be given to both descriptive and inferential statistical methodology.
PSYC 20300. Biological Psychology. 100 Units.
What are the relations between mind and brain? How do brains regulate mental, behavioral, and hormonal processes; and how do these influence brain organization and activity? This course introduces the anatomy, physiology, and chemistry of the brain; their changes in response to the experiential and sociocultural environment; and their relation to perception, attention, behavioral action, motivation, and emotion.
PSYC 20400. Cognitive Psychology. 100 Units.
Viewing the brain globally as an information processing or computational system has revolutionized the study and understanding of intelligence. This course introduces the theory, methods, and empirical results that underlie this approach to psychology. Topics include categorization, attention, memory, knowledge, language, and thought.
PSYC 20500. Developmental Psychology. 100 Units.
This is an introductory course in developmental psychology, with a focus on cognitive and social development in infancy through early childhood. Example topics include children’s early thinking about number, morality, and social relationships, as well as how early environments inform children’s social and cognitive development. Where appropriate, we make links to both philosophical inquiries into the nature of the human mind, and to practical inquiries concerning education and public policy.
PSYC 20550. From Data to Manuscript in R. 100 Units.
This course tackles the basic skills needed to build an integrated research report with the R programming language. We will cover every step from data to manuscript including: Using R’s libraries to clean up and re-format messy datasets, preparing data sets for analysis, running statistical tools, generating clear and attractive figures and tables, and knitting those bits of code together with your manuscript writing. The result will be a reproducible, open-science friendly report that you can easily update after finishing data collection or receiving comments from readers. Never copy-paste your way through a table again! The R universe is large, so this course will focus specifically on: The core R libraries, the tidyverse library, and R Markdown. Students will also learn about the use of GitHub for version control.
Prerequisite(s): This is a project-based course. Students must already be in possession of a (partial or whole) dataset for which they would like to create a preliminary research report (e.g., for thesis submission, publication, or similar). No prior programing experience necessary.
Equivalent Course(s): CHDV 20550, MAPS 30550, CHDV 30550, PSYC 30550, MACS 30550
PSYC 20600. Social Psychology. 100 Units.
This course introduces students to the field of social psychology – the scientific study of how people think about, feel about, interact with, influence, and relate to one another. Topics covered include self and social perception, social influence, beliefs and attitudes, altruism, and intergroup processes. Where relevant, we will discuss if and how findings in social psychology can be applied in real-world contexts such as health, work, and relationships.
Equivalent Course(s): CHDV 26000
PSYC 20700. Sensation and Perception. 100 Units.
What we see and hear depends on energy that enters the eyes and ears, but what we actually experience-perception-follows from human neural responses. This course focuses on visual and auditory phenomena, including basic percepts (for example, acuity, brightness, color, loudness, pitch) and also more complex percepts such as movement and object recognition. Biological underpinnings of perception are an integral part of the course.
Equivalent Course(s): NSCI 20140
PSYC 20850. Introduction to Human Development. 100 Units.
This course introduces the study of lives in context. The nature of human development from infancy through old age is explored through theory and empirical findings from various disciplines. Readings and discussions emphasize the interrelations of biological, psychological, and sociocultural forces at different points of the life cycle.
PSYC 21109. Concepts and Categories. 100 Units.
Despite how central categories and concepts are in theories of cognition, there is a lack of consensus within the scientific community as to the nature of concepts and categories. This course serves to introduce students to this ever-growing dialogue regarding concepts and categories. During the course we will analyze both classical and current theories of categorization. We will also briefly focus on how the process of categorization may change from infancy to adulthood. From this we will go on to discuss topics regarding the function and use of concepts and categories, as well as how concepts and categories may be acquired and maintained.
PSYC 21116. The Development of Social Cognition. 100 Units.
Our species is notably social, with both positive and negative consequences: we thrive in groups, yet we often discriminate against those who are not like us. This course focuses on social cognitive development in childhood, with the goal of understanding the foundations of human nature in a social context. Topics include theories of mind, social learning, motivation and achievement, moral development, social categorization and the origins and development of our tendency to divide the world into “us” versus “them.”
PSYC 21260. Psychology Research Incubator. 100 Units.
This course is designed for anyone interested in carrying out psychological research; it is strongly advised for students considering Honors in Psychology. Answering questions about how minds work, how choices are made, or about the forces that shape behavior depends on understanding how to carry out research. This course guides you through the process of developing an original research project of your own design. Whether your questions come from research you are already working on in a lab or reflect independent interests of your own, this course will lead you through the process of designing an empirical study to address an issue that interests you. From the first stages of turning an idea into a study, you will work either individually or with a group to develop your research questions scientifically to address issues that can contribute new knowledge to psychological science. In this course you will learn to: (1) generate testable hypotheses that are informed by prior research, (2) design and implement methods for testing these hypotheses, and (3) write an IRB protocol in order to collect data. The course culminates with drafting a research grant proposal so you will be well positioned to take advantage of the increased funding opportunities available for undergraduate research within the university and beyond.
PSYC 21690. Media and Psychology: Causes and consequences of media use across the lifespan. 100 Units.
This course will examine the influence of media on individuals and groups from both a developmental and socio-cultural perspective. Topics will include young children’s academic and social-emotional skill learning from television, video and tablets; adolescents’ social media identities and experiences including cyber-bullying; media influences on adults’ health behaviors, aggression, prejudice, and more. Students will engage in both qualitative and quantitative research on media and psychology as part of this course.
PSYC 21750. Biological Clocks and Behavior. 100 Units.
This course will address physiological and molecular biological aspects of circadian and seasonal rhythms in biology and behavior. The course will primarily emphasize biological and molecular mechanisms of CNS function, and will be taught at a molecular level of analysis from the beginning of the quarter. Those students without a strong biology background are unlikely to resonate with the course material.
PSYC 22220. Understanding Inequality as a Psychologist. 100 Units.
Inequality within and across social groups has risen sharply in the past few decades. What are the early traces and psychological mechanisms of this pervasive phenomenon? In this seminar, we will discuss these questions from multiple angles, integrating developmental, social and cognitive psychology. Specifically, this course will cover topics in early social cognition, including social categorization, essentialism, structural reasoning, normative reasoning, stereotypes and prejudice, etc. Students will evaluate past studies throughout the course and propose original research at the end.
PSYC 22350. Social Neuroscience. 100 Units.
Human beings are intensely social creatures. Our health and well-being depend on others. Social neuroscience provides an overarching paradigm to investigate social cognition and behavior, and to determine where we as a species fit within a broader biological context. The course examines how the brain mediates social cognition and behavior. It spans diverse species and disciplines (evolution, neuroscience, psychology, behavioral economics, political science). A wide range of topics is examined, including behavioral synchrony, friendship, cooperation, social decision-making, social status and hierarchies, empathy, group affiliation and identity, social influence, etc. Interdisciplinary analyses, by integrating approaches from social sciences and biological sciences, significantly expand our knowledge, and have the potential to improve our social and living conditions.
PSYC 22580. Child Development in the Classroom. 100 Units.
This discussion-based, advanced seminar is designed to investigate how preschool and elementary students think, act, and learn, as well as examine developmentally appropriate practices and culturally responsive teaching in the classroom. This course emphasizes the application of theory and research from the field of psychology to the realm of teaching and learning in contemporary classrooms. Course concepts will be grounded in empirical research and activities geared towards understanding the nuances and complexities of topics such as cognitive development (memory, attention, language), early assessment systems, standardized testing, “mindset”, “grit”, exercise/nutrition, emotion regulation, and more.
PSYC 23000. Cultural Psychology. 100 Units.
There is a substantial portion of the psychological nature of human beings that is neither homogeneous nor fixed across time and space. At the heart of the discipline of cultural psychology is the tenet of psychological pluralism, which states that the study of “normal” psychology is the study of multiple psychologies and not just the study of a single or uniform fundamental psychology for all peoples of the world. Research findings in cultural psychology thus raise provocative questions about the integrity and value of alternative forms of subjectivity across cultural groups. In this course we analyze the concept of “culture” and examine ethnic and cross-cultural variations in mental functioning with special attention to the cultural psychology of emotions, self, moral judgment, categorization, and reasoning.
PSYC 23120. Human Language and Interaction. 100 Units.
Language may be learned by individuals, but we most often use it for communication between groups. How is it that we manage to transmit our internal thoughts to others’ minds? How is it that we can understand what others mean to express to us? Whether we are greeting a passerby, ordering a meal, or debating politics, there are a number of invisible processes that bring language to life in the space between individuals. This course investigates the social and cognitive processes that enable us to successfully communicate with others. The theories we cover are built on observations of adult language use and child development in multiple cultural settings, taking inspiration also from non-human animal communication. It is expected that, by the end of the course, students will be able to explain the limitations of language for communication and will be able to elaborate on a number of social and other cognitive processes that critically support communicative language use.
PSYC 23155. Methods in Child Development Research. 100 Units.
This course engages with one current topic (the topic differs each year) from research on child social and/or language development. We will read and discuss a collection of research studies related to this topic to gain familiarity with its primary questions, theories, and methods. We will also, together as a class, conduct a replication of an experiment- or recording-based research study related to the topic. Students should be prepared to read and discuss scientific research articles and to do hands-on research activities. Students will complete the class with expertise on the topic of focus, including experience with its associated methods.
PSYC 23165. Multidisciplinary Perspectives on Morality. 100 Units.
Morality is essential for societal functioning and central to human flourishing. People across all cultures seem to have the same sense about morality. They simply know what morality is, often without being able to concretely define what exactly it means to label something as a moral kind. But when one tries to more precisely and scientifically define what morality is, things become less clear and more complex. As we’ll see in the class, the field of morality is incredibly dynamic and characterized more by competing theories and perspectives than by scientific consensus. The past decades have seen an explosion of theoretical and empirical research in the study of morality. Amongst the most exciting and novel findings and theories, evolutionary biologists and anthropologists have shown that morality has evolved to facilitate cooperation and social interactions. Developmental psychologists came up with ingenious paradigms, demonstrating that some elements underpinning morality are in place much earlier than we thought in preverbal infants. Social psychologists and behavioral economists examine the relative roles of emotion and reasoning, as well as how social situations affect moral or amoral behavior. Social neuroscientists are mapping neural and hormonal mechanisms implicated in moral decision-making. The lesson from all this new knowledge is clear: moral cognition and behavior cannot be separated from biology, human development, culture, and social context.
PSYC 23200. Introduction to Language Acquisition. 100 Units.
This course addresses the major issues involved in first-language acquisition. We deal with the child’s production and perception of speech sounds (phonology), the acquisition of the lexicon (semantics), the comprehension and production of structured word combinations (syntax), and the ability to use language to communicate (pragmatics).
PSYC 23249. Animal Behavior. 100 Units.
This course introduces the mechanism, ecology, and evolution of behavior, primarily in nonhuman species, at the individual and group level. Topics include the genetic basis of behavior, developmental pathways, communication, physiology and behavior, foraging behavior, kin selection, mating systems and sexual selection, and the ecological and social context of behavior. A major emphasis is placed on understanding and evaluating scientific studies and their field and lab techniques.
PSYC 23360. Methods in Gesture and Sign Language Research. 100 Units.
In this course we will explore methods of research used in the disciplines of linguistics and psychology to investigate sign language and gesture. We will choose a set of canonical topics from the gesture and sign literature such as pointing, use of the body in quotation, and the use of non-manuals, in order to understand the value of various effective methods in current use and the types of research questions they are best equipped to handle.
PSYC 23370. Bright and Dark Sides of Empathy. 100 Units.
The experience of empathy is a powerful phenomenon. It motivates prosocial behavior, especially parental care, and facilitates cooperation and group living. As an important aspect of the patient-doctor relationship, empathy is associated with better health outcomes. Yet, empathy is limited and fragile. It is susceptible to many biases and can lead to poor moral decisions. This course invites students to critically explore the science of empathy by examining its scope and its limits. It delves into cutting-edge, interdisciplinary research from the social sciences and the biological sciences to understand the mechanisms and functions of empathy. The topics examined in this course include: The evolution of empathy; The neural and neuro-endocrinological mechanisms; How empathy develops in young children; The impact of biases and implicit attitudes on empathy; The social situations and group dynamics that influence empathy; The lack of empathy in psychopathy and narcissistic personalities; Why and how empathy improves health outcomes in medicine.
PSYC 23510. Blooming, Buzzing Confusion. 100 Units.
This course examines the social and cognitive mechanisms that drive language learning in the first few years of life. Nearly all children learn the language(s) of their community, despite the fact that human languages and caregiving practices offer immense diversity around the globe. What enables the learning system to adapt so robustly to the environment it finds itself in? We discuss the evidence for and against multiple factors that have been proposed to support language development across the world’s communities. We also critically examine how these ideas intersect with current deficit models of language learning. It is expected that, by the end of the course, students will grasp the basic mechanisms proposed to underlie early language learning.
PSYC 23660. The Disordered Mind. 100 Units.
What are disorders of the mind? What are some of the theoretical and practical issues surrounding the identification, classification, and treatment of such disorders? What do mental disorders have to teach us about the typically-functioning mind? This seminar course will address these and other questions within biological, psychological, and sociocultural perspectives to attempt to understand the current and historical paradigms that have influenced our perception of what it means for the mind to be “disordered.” Included will be discussion of behavioral, emotional, cognitive, and developmental disorders.
PSYC 23820. Attention and Working Memory in the Mind and Brain. 100 Units.
This course will provide a broad overview of current work in psychology and neuroscience related to attention and working memory. We will discuss evidence for sharp capacity limits in an individual’s ability to actively monitor and maintain information in an “online” mental state. Readings will be primarily based on original source articles from peer-reviewed journals, with a focus on behavioral and neural approaches for measuring and understanding these basic cognitive processes.
PSYC 23860. Beyond Good and Evil: The Psychology of Morality. 100 Units.
Morality is a mysterious and possibly uniquely human capacity that influences how we make decisions in a number of domains. In this course we will explore how and why human beings have the moral intuitions that they do and also where these intuitions come from-what about our moral intuitions are built in and how are these intuitions shaped by experience? To achieve these goals, we will discuss literature from developmental, social, and evolutionary psychology, as well as some literature from behavioral economics and experimental philosophy. We will briefly review the history of moral psychology, but spend the bulk of our time discussing contemporary debates and findings from research on moral psychology.
PSYC 24010. Systems Neuroscience. 100 Units.
This course covers vertebrate and invertebrate systems neuroscience with a focus on the anatomy, physiology, and development of sensory and motor control systems. The neural bases of form and motion perception, locomotion, memory, and other forms of neural plasticity are examined in detail. We also discuss clinical aspects of neurological disorders.
PSYC 24060. Understanding Practical Wisdom. 100 Units.
Thinking about the nature of wisdom goes back to the Greek philosophers and the classical religious sages, but the concept of wisdom has changed in many ways over the history of thought. While wisdom has received less scholarly attention in modern times, it has recently re-emerged in popular discourse with a growing recognition of its potential importance for addressing complex issues in many domains. But what is wisdom? It’s often used with a meaning more akin to “smart” or “clever.” Is it just vast knowledge? This course will examine the nature of wisdom-how it has been defined in philosophy and psychological science, how its meaning has changed, and what its essential components might be. We will discuss how current philosophical and psychological theories conceptualize wisdom and consider whether, and how, wisdom can be studied scientifically; that is, can wisdom be measured and experimentally manipulated to illuminate its underlying mechanisms and understand its functions? Finally, we will explore how concepts of wisdom can be applied in business, education, medicine, the law, and in the course of our everyday lives. Readings will be drawn from a wide array of disciplines including philosophy, classics, history, psychology, behavioral economics, medicine, and public policy. The course will include lectures by philosophers and psychologists. This course is offered in association with the Chicago Moral Philosophy Project and the Good Life program (the Hyde Park Institute).
PSYC 24133. Neuroscience of Seeing. 100 Units.
This course focuses on the neural basis of vision, in the context of the following two questions: 1. How does the brain transform visual stimuli into neuronal responses? 2. How does the brain use visual information to guide behavior? The course covers signal transformation throughout the visual pathway, from retina to thalamus to cortex, and includes biophysical, anatomical, and computational studies of the visual system, psychophysics, and quantitative models of visual processing. This course is designed as an advanced neuroscience course for undergraduate and graduate students. The students are expected to have a general background in neurophysiology and neuroanatomy.
PSYC 24231. Methods in Computational Neuroscience. 100 Units.
Topics include (but are not limited to): relating neural data to behavior, Signal Detection theory, models of vision and artificial neural networks, Information Theory, Generalized Linear Models, dimensionality reduction, classification, and clustering.
PSYC 24450. Foundations of Neuroscience. 100 Units.
This course is an introduction to the broad field of neuroscience. This is a lecture-based course that aims to introduce undergraduate students to concepts and principles that explain how the nervous system is built and how it functions. Examples of thematic areas covered in lectures include: (a) cellular anatomy of the nervous system, (b) development and evolution of the nervous system, (c) sensory systems, (d) motor systems, (e) cognition and behavior.
PSYC 24470. Cellular Neurophysiology. 100 Units.
This course describes the cellular and subcellular properties of neurons, including passive and active electrophysiological properties, and their synaptic interactions. Readings are assigned from a general neuroscience textbook.
PSYC 25280. The Psychology of Close Relationships. 100 Units.
Humans are an innately social species, and our romantic partners, close friends, and family members are arguably the most central features of our social experience. In this seminar, we dive into the psychology of relationships. We will cover topics related to attraction, love, commitment, relationship satisfaction, and relationship dissolution. We will explore not only the factors that predict the success of a relationship, but will also delve into the ways that relationship partners can affect the individual’s sense of self, success, and general well-being. We will focus primarily on romantic relationships, but will also discuss other influential relationships, including friends, family members, and social networks.
PSYC 25500. Cognitive and Social Neuroscience of Aging. 100 Units.
As the baby boom generation ages, the rising prevalence of aging-related cognitive decline has become a major challenge for individuals, families and society. However, not all cognitive systems are negatively impacted by aging, and aging also causes complex social and emotional changes. How does aging affect our brains and our minds, and are these changes inevitable? This seminar provides an introduction to the scientific literature of the aging mind, focusing on both normal and pathological (e.g., Alzheimer’s disease) changes in late adulthood. We will cover contemporary research from cognitive and social neuroscience perspectives. Topics include different psychological domains (e.g., attention, memory, metacognition, affective control) and applied issues (e.g., physical exercise, mental training, stereotype threat).
PSYC 25750. The Psychology and Neurobiology of Stress. 100 Units.
This course explores the topic of stress and its influence on behavior and neurobiology. Specifically, the course will discuss how factors such as age, gender, and social context interact to influence how we respond to stressors both physiologically and behaviorally. The course will also explore how stress influences mental and physical health.
PSYC 25950. The Psychology of Stereotyping and Prejudice. 100 Units.
This course introduces concepts and research in the study of stereotyping and prejudice. Topics include the formation of stereotypes and prejudice; the processes that underlie stereotyping and prejudice; stereotyping and prejudice from the target’s perspective; and prejudice and stereotype reduction. The course will cover a variety of groups (e.g., race, gender, weight, and sexual orientation) and explore the implications of stereotyping and prejudice across a number of settings (e.g., educational, law, and health).
PSYC 26520. Mind, Brain and Meaning. 100 Units.
What is the relationship between physical processes in the brain and body and the processes of thought and consciousness that constitute our mental life? Philosophers and others have puzzled over this question for millennia. Many have concluded it to be intractable. In recent decades, the field of cognitive science–encompassing philosophy, psychology, neuroscience, computer science, linguistics, and other disciplines–has proposed a new form of answer. The driving idea is that the interaction of the mental and the physical may be understood via a third level of analysis: that of the computational. This course offers a critical introduction to the elements of this approach, and surveys some of the alternative models and theories that fall within it. Readings are drawn from a range of historical and contemporary sources in philosophy, psychology, linguistics, and computer science. (B) (II)
PSYC 26780. Emotion and Motivation. 100 Units.
What are emotions and how do they motivate us? In this course we will explore the universally experienced concept of emotion and how it is fundamentally inseparable from that of motivation. From shared neurobiological mechanisms and evolutionary theory to psychological impacts on behavior, this course will trace the commonalities between emotion and motivation. Topics will include autonomic correlates of emotion, the motivational utility of positive and negative emotions, and interactions with development, cognition, social behavior, and mental health. Interdisciplinary research will be emphasized, particularly in the critical evaluation of current theories and empirical findings. Prior coursework in psychology and/or neuroscience is recommended.
PSYC 27010. Psycholinguistics. 100 Units.
This is a survey course in the psychology of language. We will focus on issues related to language comprehension, language production, and language acquisition. The course will also train students on how to read primary literature and conduct original research studies.
PSYC 27950. Evolution and Economics of Human Behavior. 100 Units.
This course explores how evolutionary biology and behavioral economics explain many different aspects of human behavior. Specific topics include evolutionary theory, natural and sexual selection, game theory, cost-benefit analyses of behavior from an evolutionary and a behavioral economics perspective, aggression, power and dominance, cooperation and competition, biological markets, parental investment, life history and risk-taking, love and mating, physical attractiveness and the market, emotion and motivation, sex and consumer behavior, cognitive biases in decision-making, and personality and psychopathology.
PSYC 28420. Problem Solving, Insight, and Creativity. 100 Units.
Human problem-solving and creativity are frequently cited as the workhorses of progress across many different fields of science and engineering. This course surveys classic and recent literature exploring the cognitive and neural mechanisms underlying problem solving and creativity. Students taking this class will: (1) develop critical thinking skills in evaluating psychological experiments, arguments, and practices commonly used in research on problem-solving and creativity; (2) develop an appreciation of the complexity of the research on problem-solving and creativity; and (3) be able to articulate the various ways researchers think and model the mechanisms underlying problem-solving and creativity at both a cognitive and neural level.
PSYC 28791. Behavioral Science and Public Policy. 100 Units.
Many policies are aimed at influencing people’s behavior. The most well-intentioned policies can fail, however, if they are not designed to be compatible with the way people actually think and make decisions. This course will draw from the fields of cognitive, social, and environmental psychology to (1) examine the ways in which human behavior deviates from the standard rational actor model typically assumed by economics, and (2) provide strategies for improving the design, implementation, and evaluation of public-facing policies. The basic premise of this course is that a foundational understanding of human behavior can lead not only to more effective policies, but enhanced decision-making and well-being.
PSYC 28810. From Fossils to Fermi’s Paradox: Origin and Evolution of Intelligent Life. 100 Units.
The course approaches Fermi’s question, “Are we alone in the universe?,” in the light of recent evidence primarily from three fields: the history and evolution of life on Earth (paleontology), the meaning and evolution of complex signaling and intelligence (cognitive science), and the distribution, composition and conditions on planets and exoplanets (astronomy). We also review the history and parameters governing extrasolar detection and signaling. The aim of the course is to assess the interplay between convergence and contingency in evolution, the selective advantage of intelligence, and the existence and nature of life elsewhere in the universe – in order to better understand the meaning of human existence.
PSYC 28850. The Biological Nature of Psychological Problems. 100 Units.
This course is based on the strong assumption that psychology is a biological science, albeit with elements of the social sciences. The course uses a combination of lectures and classroom discussion of primary and secondary source readings assigned for each class meeting. It presents a strong biological science perspective on individual differences in emotions, motivations, and cognitions that cause distress or interfere with adaptive life functioning, but does so in a non-stigmatizing manner. The course begins with a description and discussion of the nature of psychological problems. The course will survey what is known about the genetic, environmental, and epigenetic bases of such problems and the methods used to study genetic influences and gene-environment interactions. Next, students will review what is currently known about the neural and other biological mechanisms involved in maladaptive individual difference in emotion, motivation, and cognitive processes, with discussion of the methods of studying such mechanisms in humans and nonhumans. The pros and cons of the medical model of ‘mental illness’ will be discussed as the major contrast with the natural science view advocated by the instructor.
PSYC 28962. Principles and Methods of Measurement. 100 Units.
Accurate measurement of key theoretical constructs with known and consistent psychometric properties is one of the essential steps in quantitative social and behavioral research. However, measurement of phenomena that are not directly observable (such as psychological attributes, perceptions of organizational climate, or quality of services) is difficult. Much of the research in psychometrics has been developed in an attempt to properly define and quantify such phenomena. This course is designed to introduce students to the relevant concepts, principles, and methods underlying the construction and interpretation of tests or measures. It provides in-depth coverage of test reliability and validity, topics in test theory, and statistical procedures applicable to psychometric methods. Such understanding is essential for rigorous practice in measurement as well as for proper interpretation of research. The course is highly recommended for students who plan to pursue careers in academic research or applied practice involving the use or development of tests or measures in the social and behavioral sciences.
PSYC 28990. Constructing consciousness: How do we go from matter to mind? 100 Units.
How does consciousness happen? How can we scientifically study the links between the external world, the activity of our nervous systems, and our experiences? How do our percepts correlate with their physical causes? This reading- and discussion-focused course will engage with these and other big questions by examining the neural substrates and historical studies of perception. You must have taken at least one of the following four classes to register for this course: PSYC 20300 Biological Psychology; PSYC 20700 Sensation & Perception; NSCI 20111 Cellular Neurophysiology; or NSCI 20130 Systems Neuroscience. Requirements for a passing grade will include reading and posting written responses to several papers each week, participating in in-class discussions and peer-led discussions (one of which you will help lead), and writing a roughly three- to seven-page final paper.
PSYC 29200. Undergrad Rdgs: Psychology. 100 Units.
Students are required to submit the College Reading and Research Course Form. Available for either quality grades or for P/F grading. Only one independent study course may count toward the twelve courses required of students majoring in psychology.
PSYC 29700. Undergraduate Research in Psychology. 100 Units.
Students are required to submit the College Reading and Research Course Form. Available for either quality grades or for P/F grading. Only one independent study course may count toward the twelve courses required of students majoring in psychology.
PSYC 29800. Honors Seminar: Psychology. 100 Units.
This course is a reading and discussion of general papers on writing and research, and individual students present their own projects to the group. A literature review, data from ongoing or completed empirical projects, or portions of the thesis paper itself can be presented. Students are expected to give thoughtful feedback to others on their presentations and written work.