Bachelor of Science in Chemistry (Standard Option)

4 Years On Campus Bachelors Program

Massachusetts Institute of Technology

Program Overview

The Bachelor of Science in Chemistry (Standard Option) at MIT provides a rigorous chemistry education for students preparing for graduate study, professional careers in chemistry, or allied fields such as medicine, while combining chemistry with strong foundations in mathematics, physics, biology, and the humanities. Students develop their understanding through core chemistry subjects, advanced electives, and substantial laboratory training, with opportunities to undertake original research under Chemistry faculty.

Curriculum Structure

First Year: Students begin with MIT's Chemistry GIR requirement, establishing the fundamental scientific knowledge needed for the major, followed by 5.12 Organic Chemistry I. The first-year curriculum builds a foundation in chemical principles, molecular structure, thermodynamics, equilibria, kinetics, and organic chemistry.

Second Year: Students progress into 5.07 Introduction to Biological Chemistry and 5.13 Organic Chemistry II, developing a deeper understanding of biological molecules and advanced organic chemistry. They also begin MIT's hands-on URIECA laboratory curriculum through subjects such as 5.351 Fundamentals of Spectroscopy, 5.352 Synthesis of Coordination Compounds and Kinetics, and 5.353 Macromolecular Prodrugs.

Third Year: The curriculum moves into advanced physical and structural chemistry through 5.611 Introduction to Spectroscopy and 5.612 Electronic Structures of Molecules, supported by further laboratory modules such as 5.363 Organic Structure Determination, 5.372 Chemistry of Renewable Energy, and 5.373 Synthesis of Boron Heterocycles. Students can use these experiences to investigate modern applications of chemical science and strengthen their experimental skills.

Fourth Year: Students complete the major with two restricted advanced lecture electives, choosing from subjects including 5.04 Principles of Inorganic Chemistry II, 5.08 Fundamentals of Chemical Biology, 5.43 Advanced Organic Chemistry, and 5.62 Physical Chemistry II. The senior curriculum can also include 5.39 Research and Communication in Chemistry, giving students an opportunity to develop advanced research and scientific-communication skills.

Focus Areas: Inorganic chemistry, organic chemistry, biological chemistry, physical chemistry, thermodynamics, kinetics, spectroscopy, electronic structure, chemical biology, renewable energy, sustainable chemistry, materials and molecular science, chemical research.

Learning Outcomes: Chemical principles, molecular structure, organic and inorganic chemistry, biological chemistry, thermodynamics, kinetics, spectroscopy, electronic structure, experimental laboratory techniques, chemical analysis, research skills, scientific communication, interdisciplinary problem-solving.

Professional Alignment (Accreditation: MIT's Chemistry Department states that the S.B. Chemistry program provides preparation for careers in chemistry and allied professional fields, as well as graduate study; the official program page should be used for the current accreditation/certification status rather than assuming an accreditation that MIT does not explicitly state.

Reputation (Employability Rankings)

QS World University Rankings 2026: Massachusetts Institute of Technology (MIT) — #1 globally, a university-level ranking rather than a ranking specifically for this bachelor's program.

QS World University Rankings by Subject 2026 – Chemistry: MIT — #2 globally, providing a subject-specific indication of the university's standing in chemistry.

Experiential Learning (Research, Projects, Internships etc.)

The B.S. in Chemistry (Standard Option) gives students extensive practical training through MIT Chemistry’s Undergraduate Teaching Laboratory (UGTL) and the URIECA modular laboratory curriculum, where experiments are connected to current research in catalysis, synthesis, nanoscience, materials engineering, biotechnology, and spectroscopy. Students can also progress from structured laboratory work into original research through UROP, while advanced students may use 5.39 Research and Communication in Chemistry or complete an undergraduate thesis based on faculty-supervised research.

Key experiential opportunities include:

Chemistry Laboratory Techniques (5.301): First-year students receive intensive practical training in compound manipulation, distillation, recrystallization, chromatography, NMR, infrared and UV spectroscopy, mass spectrometry, and quantitative spectroscopic and chromatographic analysis.
URIECA laboratory modules: Students work through a flexible set of 12 independent laboratory modules connected to faculty research, with topics including catalysis, synthesis, nanoscience, materials engineering, biotechnology, and spectroscopy.
Advanced instrumentation: The UGTL provides students with hands-on access to instruments including ICP-MS, UPLC-MS, GC-MS, MALDI mass spectrometers, NMR spectrometers, FTIR spectrometers, UV-VIS spectrometers, HPLC, glove boxes, centrifuges, rotary evaporators, and fluorescence spectrometers.
Research-focused laboratory facilities: The UGTL in MIT.nano includes 69 fume hoods, Schlenk lines, vacuum manifolds, dedicated glove-box facilities, and equipment for experiments involving air- or moisture-sensitive and highly reactive materials.
Undergraduate research through UROP: Students can collaborate directly with MIT Chemistry faculty on cutting-edge chemical research, developing laboratory, communication, teamwork, and research skills. Research can be taken for credit through 5.UR or 5.URG, with opportunities to present work at the annual Chemistry Undergraduate Research Symposium.
Independent research and scientific communication: 5.39 Research and Communication in Chemistry allows eligible students to use faculty-supervised research as part of the laboratory requirement, culminating in a poster presentation and a research publication-style written report.
Undergraduate thesis: Chemistry majors can undertake an undergraduate thesis (5.THU) based on original research supervised by an MIT Chemistry faculty member; MIT particularly encourages this experience for students planning graduate study in chemistry.
Department of Chemistry Instrumentation Facility (DCIF): Students involved in research can benefit from MIT Chemistry’s shared instrumentation infrastructure, which includes mass spectrometers, NMR spectrometers, EPR, FTIR, HPLC, and polarimetry equipment, with staff providing instrument training and analytical support.
Research-connected student experiments: MIT Chemistry states that some UGTL modules are written by Chemistry faculty and are directly linked to ongoing research or discoveries in their laboratories, giving students experience with research-informed experimental chemistry rather than only standard laboratory exercises.

Progression & Future Opportunities

The B.S. in Chemistry (Standard Option) prepares students for careers in chemistry and allied fields while also providing a strong foundation for graduate or professional study in areas such as medicine, biotechnology, materials science, and chemical research. MIT reports that, across its 2025 graduating bachelor’s population, 45.9% entered full-time employment and 41.2% pursued graduate or professional school, illustrating the range of pathways available after an MIT bachelor’s degree.

Typical career roles: Chemist, Pharmaceutical Researcher, Biotech Researcher, Materials Scientist.

Career development and progression are supported through:

MIT Career Advising & Professional Development (CAPD): Students can access career advising, employment resources, recruiting opportunities, job and internship postings through Handshake, and MIT’s CareerBridge system.
Undergraduate research: MIT Chemistry encourages students to undertake original research under the supervision of Chemistry faculty, helping them develop research experience relevant to both employment and graduate study.
Internships and experiential learning: MIT reports that 78% of the 2025 graduating class completed an internship, while 94% completed UROP, providing substantial opportunities to connect academic learning with professional or research environments.
Employment outcome: MIT's 2025 graduating-student data reports that 84.7% of responding bachelor's graduates who reported employment plans had accepted a position, while 97% of employment-seeking graduates found employment within six months according to MIT CAPD's 2026 summary. These figures cover MIT bachelor's graduates overall, not Chemistry graduates specifically.
Salary information: MIT's official Graduate Student Survey provides salary data by degree and occupation through its outcomes resources, but the currently accessible official results do not provide a current Chemistry-specific bachelor's salary figure, so a Chemistry-specific salary should not be assumed.
University–industry connections: MIT Chemistry maintains connections with research organizations and interdisciplinary institutes including the MIT Energy Initiative, Center for Materials Science and Engineering, Koch Institute for Integrative Cancer Research, Institute for Medical Engineering and Science, Novartis Center for Continuous Manufacturing, Broad Institute, Picower Institute, and Whitehead Institute.
Professional accreditation value: The MIT B.S. in Chemistry is certified by the American Chemical Society (ACS), providing a professionally recognized chemistry curriculum that can support progression into chemistry-related careers and further study.
Graduation outcomes: Among MIT bachelor's respondents in the 2025 Graduating Student Survey, 41.2% reported graduate or professional school as their principal activity and 45.9% reported full-time employment; students entering further study most commonly reported fields including engineering, science, and medicine/dentistry/veterinary medicine.

Further Academic Progression: After completing the B.S. in Chemistry, students can continue into graduate or professional education, including MIT's Ph.D. in Chemistry, other Ph.D./Sc.D. or master's programs, or professional programs such as medical school. MIT Chemistry specifically provides resources for applying to graduate and medical school, while its undergraduate curriculum is designed both for students pursuing advanced degrees and for those entering professional careers directly.