MIT Chemical Engineering (ChemE)

What MIT Chemical Engineering (ChemE) does

MIT Chemical Engineering (ChemE) is an academic department within the Massachusetts Institute of Technology, located in Cambridge, Massachusetts, that delivers undergraduate, master's, and doctoral education in chemical engineering and conducts research across seven thematic areas: AI for chemistry, biomedical engineering, energy, environment, materials, manufacturing, and quantum engineering. The department's core academic products are four ABET-accredited Bachelor of Science tracks (Course 10, 10B, 10C, and the flexible 10-ENG), the research-focused PhD program, the Practice School-based PhDCEP and MSCEP graduate tracks, and postdoctoral research positions (~100+ postdoctoral scholars). The defining structural product is the Practice School, an industrial-internship academic model founded in 1916 that places students in long-duration placements at industry partner sites; this model is described as unique within chemical engineering education and underpins much of the department's industrial sponsorship pipeline.

Research output is organized through faculty-led groups and laboratories spanning electrochemical interfaces (Bazant), AI-driven chemistry and machine learning for pharmaceuticals (Coley), advanced manufacturing (Hammond), atmospheric chemistry and climate (Prather), sustainable energy and artificial photosynthesis (Nocera), and computational fluid modeling (new hire Varchanis, 2026). The department is structurally integrated with cross-MIT institutes, including the Koch Institute for Integrative Cancer Research and other shared facilities, enabling multi-disciplinary collaborations and shared infrastructure access.

As a non-profit academic unit, MIT ChemE does not generate independent commercial revenue. Its inflows — research grants (federal and industrial), tuition, and endowed philanthropic gifts such as the David H. Koch endowment — flow through MIT's central administration and are not reported at the department level. Recent strategic signals include selection for the 2026 DOE 'Genesis Mission' federal funding program (Bazant and Olsen projects), a new faculty appointment in computational fluid modeling (Varchanis, 2026), and continued buildout of AI-for-chemistry as a named research area. The department's competitive position rests on its faculty talent pipeline, the MIT brand, ABET accreditation, and the Practice School's industrial partnerships rather than on any commercial product line.

Name

MIT Chemical Engineering (ChemE)

Legal name

Massachusetts Institute of Technology - Department of Chemical Engineering

Website

https://cheme.mit.edu

Company type

Private

Founded year

1916

Operating status

Operating

Headcount range

51–100 employees

Short description

MIT Chemical Engineering is an academic department within MIT that offers ABET-accredited undergraduate (Course 10, 10B, 10C, 10-ENG) and graduate (PhD, PhDCEP, MSCEP) chemical engineering programs, conducts research across seven areas including AI for chemistry, and operates the industry-internship-based Practice School model.

Ownership category

akta.pro rank

Product category

Higher Education - Engineering

NAICS

Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology) (541715)

SIC

Services-Commercial Physical & Biological Research (8731)

akta.pro primary industry

Technical Universities with Specialized Engineering Domains (EDAHAEAI)

akta.pro secondary industries

Cooperative Education (Co-op) Technical Universities (EDAHAEAF), Engineering & Technical Professions (PE, Engineering CPD) (EDAAALAF), Chemicals (EDABALAE)

Keywords

• Chemical engineering education
• Undergraduate engineering degrees
• Graduate research programs
• Industrial practice school
• Chemical engineering research

Headquarters

HQ city

Cambridge

HQ country

United States

HQ region

North America

Offices3 records

Markets served

GTM type

B2C

Offering type

Services

Cost components

Personnel, Technology or R&D, Operations, Infrastructure, Marketing or Sales

Revenue model

1. Research Grants and Contracts: Federal and private research funding from agencies including DOE, NSF, NIH, ONR, and industry partners supporting faculty research programs
2. Tuition and Fees: Graduate and undergraduate tuition revenue flows through MIT's central administration with department allocations for educational programs
3. Endowed Gifts and Donations: Major gifts such as the David H. Koch endowment for the Practice School support department operations, fellowships, and capital improvements

Pricing tiers

Go-to-market motion2 records

Distribution channels3 records

Marketing channels4 records

Core offering

MIT ChemE is an academic department delivering chemical engineering education and research. It offers four undergraduate degree programs (Course 10, 10B, 10C, 10-ENG), three graduate degree programs (Ph.D./Sc.D., Ph.D. CEP dual-degree with MIT Sloan MBA, M.S.CEP), the David H. Koch School of Chemical Engineering Practice for industrial experience, and continuing education through MOOCs. Faculty conduct research across seven focus areas spanning biomedical, energy, environment, materials, computation, and transport phenomena.

Product overview

MIT Chemical Engineering (ChemE) is an academic department offering a comprehensive portfolio of undergraduate and graduate educational programs. The department provides four undergraduate degree options: Course 10 (standard chemical engineering), Course 10B (chemical-biological engineering), Course 10C (interdisciplinary BS), and Course 10-ENG (flexible engineering with seven concentrations). Graduate offerings include traditional Ph.D./Sc.D., the Ph.D. CEP dual-degree with MIT Sloan MBA, and the M.S.CEP professional master's. These programs are supported by The Practice School for industrial experience, interdisciplinary options (TPP, PPSM, CSE, LGO), and the ChemE Career and Communication Lab for student development. Research spans seven focus areas: Biomedical and Biotechnology, Catalysis and Reaction Engineering, Energy, Environment and Sustainability, Materials, Math and Computational Systems, and Transport and Thermodynamics.

Differentiator

Problem solved

Functional benefit

Products and services

• Course 10 (Bachelor of Science in Chemical Engineering) ABET-accredited undergraduate program providing broad education in chemical engineering applications including energy, environment, nanotechnology, polymers, catalysis, and biotechnology. Intended for prospective undergraduate students.
• Course 10B (Bachelor of Science in Chemical-Biological Engineering) ABET-accredited program focused on biochemical and biomedical technologies, including additional biology and applied biology coursework, suitable for biomedical engineering minors or medical school preparation.
• Course 10C (Bachelor of Science) Non-ABET-accredited program allowing specialization in a different academic area while learning chemical engineering principles, suitable for interdisciplinary focus areas.
• Course 10-ENG (Bachelor of Science in Engineering) ABET-accredited flexible engineering program with seven concentration areas: Biomedical, Energy, Engineering Computation, Environment & Sustainability, Manufacturing Design, Materials, and Process Data Analytics.
• Ph.D./Sc.D. Program in Chemical Engineering Traditional research-based doctoral degree providing thorough grounding in chemical engineering fundamentals with intensive research experience and thesis defense.
• Ph.D. CEP (Chemical Engineering Practice) Program Four-year dual-degree doctoral program combining chemical engineering research with MIT Sloan MBA coursework and industrial Practice School experience.
• M.S.CEP (Master of Science in Chemical Engineering Practice) Professional master's degree requiring two semesters of graduate courses at MIT plus one semester at Practice School field stations, substituting for a thesis with intensive industrial experience.
• The Practice School (David H. Koch School of Chemical Engineering Practice) Industry-based educational experience with year-round MIT faculty presence at field stations, providing team-based project work in industrial settings.
• Interdisciplinary Programs (TPP, PPSM, CSE, LGO) Cross-departmental degree options including Technology and Policy Program, Polymers and Soft Matter, Computational Science and Engineering PhD, and Leaders for Global Operations dual MBA/MEng.
• Massive Open Online Courses (MOOCs) Online courses offered through MIT Professional Education for lifelong learning and professional development.

Named customers1 record

Segments3 records

Ideal customer profiles4 records

Technology focussed No

API detail

Has API

No

API docs

API detail

Core technology

AI maturity

App detail

Feature3 records

Partnerships

Ten partnerships are on record, tiered core, flagship and major.

• MIT Energy InitiativecoreStrategic or Co-development PartnerMIT ChemE faculty contribute to and lead the MIT Energy Initiative (E19), conducting research on energy conversion, renewable technologies, and sustainable energy systems
• Koch Institute for Integrative Cancer ResearchcoreStrategic or Co-development PartnerFaculty collaboration with the Koch Institute (Building 76) on biomedical engineering and cancer research applications
• David H. Koch School of Chemical Engineering PracticeflagshipStrategic or Co-development PartnerThe Practice School provides industrial internship experiences at partner companies globally, with MIT faculty serving as resident station directors. Founded in 1916 with initial funding from George Eastman.
• Singapore-MIT Alliance for Research & Technology (SMART)majorStrategic or Co-development PartnerInternational research collaboration with SMART center on various engineering and science initiatives
• Institute for Medical Engineering and SciencecoreStrategic or Co-development PartnerCross-departmental collaboration on medical engineering and healthcare technology research
• Ragon InstitutecoreStrategic or Co-development PartnerCollaboration with the Ragon Institute (400 Technology Square) on immunology and infectious disease research
• Institute for Soldier NanotechnologiesmajorStrategic or Co-development PartnerCollaboration with ISN (NE47) on advanced materials and nanotechnology applications for defense
• MIT Sloan School of ManagementflagshipStrategic or Co-development PartnerThe PhDCEP program provides dual-degree education combining chemical engineering PhD with MIT Sloan MBA, preparing students for leadership in industry
• Leaders for Global Operations (LGO) ProgrammajorStrategic or Co-development PartnerPartnership with LGO offering dual MBA/Engineering degrees with 20+ industry partner companies guaranteeing 6-month internships
• Technology and Policy Program (TPP)majorStrategic or Co-development PartnerInterdisciplinary program preparing students for leadership on technological issues and policy decisions

Scale indicators3 records

Recent moves9 records

Expansion highlights5 records

Direct peers

• Georgia Tech School of Chemical & Biomolecular Engineering: Leading public chemical engineering program with comparable research in sustainability, biotechnology, and materials. Competes for graduate students and industry-sponsored research.
• University of Cambridge Department of Chemical Engineering and Biotechnology: International peer with comparable research portfolio in biotechnology, energy, and sustainability. Competes for global rankings and international graduate students.
• Imperial College London Chemical Engineering: Top European chemical engineering department with strong industrial placement focus similar to MIT's Practice School. Comparable in research breadth and global student recruitment.
• Caltech Chemical Engineering: Small, elite chemical engineering program with comparable research intensity and selectivity. Competes directly in catalysis, energy, and materials research.
• UC Berkeley Chemical & Biomolecular Engineering: Directly comparable top-3 chemical engineering department with research in biofuels, nanotechnology, and biomolecular engineering. Competes with MIT ChemE for federal grants, faculty talent, and elite graduate students.
• University of Texas at Austin McKetta Department of Chemical Engineering: Top-10 US chemical engineering program with strong energy and process systems research. Direct competitor for federal funding and petroleum/energy industry partnerships.
• University of Minnesota Chemical Engineering and Materials Science: Top-ranked public chemical engineering department with strong industry partnerships and comparable research portfolio in polymers, catalysis, and reaction engineering.
• Princeton Chemical and Biological Engineering: Top-5 chemical engineering program with strong research in soft matter, energy, and biotechnology. Closely comparable in mission, faculty pedigree, and graduate program structure.
• ETH Zurich Department of Chemical Engineering: European peer institution with globally top-ranked chemical engineering program. Competes for international talent, research collaborations, and reputation in process engineering and biotechnology.
• Stanford University Chemical Engineering: Top-ranked peer chemical engineering department offering BS, MS, and PhD programs with strong research in energy, biotech, and materials. Direct competitor for top faculty, graduate students, and research funding.

Market position

Strengths5 records

Weaknesses5 records

Competitive moat5 records

Key risks7 records

Key highlights7 records

Customer concentration

• Xx.com/MITChemE
• YouTubeyoutube.com/@mitcheme5745
• Facebookfacebook.com/MITChemEng
• LinkedInlinkedin.com/company/mit-cheme
• Instagraminstagram.com/mit_cheme

Revenue estimate

Valuation estimate

Number of profiles

Profiles13 records

Funding overview

Funding rounds

Investors

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M&A

Investments

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Frequently asked questions about MIT Chemical Engineering (ChemE)