MIT School of Engineering Catalog Complete Guide 2026

MIT School of Engineering Overview

The Massachusetts Institute of Technology School of Engineering stands as the world’s preeminent engineering institution, consistently ranked number one by every major publication that evaluates engineering programs. Founded in 1861 with engineering education at its very core, MIT created the contemporary model of engineering education grounded in dynamic, evolving science. The School pioneered the modern research university model with externally sponsored research and an innovative matrix of departments and research laboratories that has been replicated worldwide.

MIT’s School of Engineering encompasses nine departments that collectively offer more than two dozen undergraduate engineering degree programs and over fifty graduate programs. The school has been instrumental in creating entirely new fields of study, including chemical engineering, sanitary engineering, naval architecture and marine engineering, soil mechanics, and the nation’s first course in aeronautical engineering. Nearly one-third of the School’s current and emeritus faculty and research staff have been inducted into the prestigious National Academy of Engineering, a testament to the extraordinary caliber of minds shaping the future of engineering at MIT.

The mission of the MIT School of Engineering centers on addressing society’s most critical challenges through excellence in engineering education and cutting-edge research. Engineers trained at MIT are positioned as leaders in scientific and technological innovation, contributing to the betterment of humanity by developing solutions that account for physical, economic, human, political, legal, and cultural realities. This holistic approach to engineering education sets MIT apart from institutions that focus solely on technical skills, producing graduates who can navigate the complex intersection of technology and society.

If you are exploring top-tier engineering programs, you may also want to review our guide on University of Pennsylvania SEAS undergraduate programs or the Northeastern University graduate engineering programs for complementary perspectives on elite engineering education.

First-Year Curriculum and Experience

One of the most distinctive features of MIT’s engineering education is its shared first-year curriculum. Unlike many universities where students declare a major upon admission, all MIT undergraduates regardless of their intended field of study complete the same foundational coursework during their freshman year. This includes rigorous courses in physics, chemistry, mathematics, biology, and humanities, arts, and social sciences. The breadth of this foundation ensures that every MIT engineer has a deep understanding of fundamental scientific principles before specializing.

Students typically affiliate with a specific engineering department at the beginning of their sophomore year, working closely with a departmental advisor to shape their individualized course of study. This approach offers several significant advantages. It gives students a full year to explore different engineering disciplines through introductory subjects offered by every department, attend First-Year Advising Seminars that provide small-group discussions with faculty members, and participate in the renowned Undergraduate Research Opportunities Program (UROP) to experience cutting-edge research firsthand.

The first-year experience at MIT is intentionally designed to prevent premature specialization while building the scientific and mathematical maturity necessary for advanced engineering study. Many students arrive at MIT with a strong preference for one discipline only to discover a passion for something entirely different through their first-year explorations. This flexibility is particularly valuable in an era where the most impactful engineering work increasingly occurs at the intersection of traditional disciplines, requiring engineers who can think across boundaries and integrate diverse perspectives.

All 9 Engineering Departments and Their Programs

Aeronautics and Astronautics (Course 16)

MIT’s Department of Aeronautics and Astronautics offers the SB in Aerospace Engineering and the flexible SB in Engineering at the undergraduate level. Graduate students can pursue the SM in Aeronautics and Astronautics, the SM/MBA dual degree through Leaders for Global Operations, the Engineer degree, and doctoral programs in a remarkable range of specializations. These PhD concentrations include Aerospace Computational Engineering, Autonomous Systems, Space Systems, Air Transportation Systems, Communications and Networks, Controls, and Humans in Aerospace among many others. The department also offers joint oceanographic engineering doctoral programs with the Woods Hole Oceanographic Institution (WHOI).

Biological Engineering (Course 20)

The Department of Biological Engineering bridges the life sciences and engineering disciplines, offering the SB in Biological Engineering for undergraduates and the SM in Toxicology, MEng in Biomedical Engineering, and SM/MBA through Leaders for Global Operations at the graduate level. Doctoral students can pursue the PhD or ScD in Biological Engineering. This department is at the forefront of developing technologies that integrate engineering principles with biological systems to address challenges in healthcare, agriculture, and environmental science.

Chemical Engineering (Course 10)

Founded on principles that MIT itself helped establish as a field, the Department of Chemical Engineering offers three undergraduate options: the SB in Chemical Engineering, the SB in Chemical-Biological Engineering, and the flexible SB in Engineering. Graduate programs include the SM in Chemical Engineering, the SM in Chemical Engineering Practice, and the SM/MBA through Leaders for Global Operations. The doctoral program offers specializations in Chemical Engineering, Chemical Engineering and Computation, and Chemical Engineering Practice, reflecting the department’s commitment to both fundamental research and practical application.

Civil and Environmental Engineering (Course 1)

The Department of Civil and Environmental Engineering offers the SB in General Engineering for undergraduates and an extensive array of graduate programs including the SM, MEng, and Engineer degrees in both Civil and Environmental Engineering specializations. The doctoral program is exceptionally diverse, with concentrations spanning Biological Oceanography, Chemical Oceanography, Civil and Environmental Systems, Coastal Engineering, Construction Engineering and Management, Environmental Fluid Mechanics, Geotechnical and Geoenvironmental Engineering, Hydrology, Information Technology, Structures and Materials, and Transportation. Many of these programs are offered jointly with WHOI.

Electrical Engineering and Computer Science (Course 6)

MIT’s largest department, EECS, offers three cutting-edge undergraduate programs: the SB in Artificial Intelligence and Decision Making, the SB in Computer Science and Engineering, and the SB in Electrical Engineering with Computing. At the graduate level, the department provides the SM, MEng (including specializations in Computer Science Economics and Data Science), and Engineer degrees. Doctoral programs cover Computer Science, Computer Science and Engineering, Electrical Engineering, and Electrical Engineering and Computer Science. This department houses some of the most influential researchers in artificial intelligence, machine learning, quantum computing, and semiconductor technology.

Health Sciences and Technology (HST)

Health Sciences and Technology represents a unique collaboration between MIT and Harvard, offering the SM in Health Sciences and Technology, the MD through Harvard Medical School, and doctoral programs in Health Sciences and Technology with optional concentrations in Bioastronautics and Medical Engineering and Medical Physics. HST trains a new generation of physician-engineers and scientist-clinicians who can bridge the gap between laboratory discoveries and clinical applications.

Materials Science and Engineering (Course 3)

The Department of Materials Science and Engineering offers a uniquely interdisciplinary set of undergraduate programs including the SB in Archaeology and Materials, the SB in Materials Science and Engineering, and the flexible SB in Engineering. Graduate programs include the SM, the Materials Engineer degree, and doctoral specializations in Archaeological Materials, Computational Materials Science and Engineering, Materials Science and Engineering, and Polymers and Soft Matter. The archaeology and materials combination is entirely unique to MIT and reflects the institution’s commitment to unconventional intellectual connections.

Mechanical Engineering (Course 2)

MIT’s Department of Mechanical Engineering offers three undergraduate options: the SB in Mechanical Engineering, the SB in Mechanical and Ocean Engineering, and the flexible SB in Engineering. The graduate program is the most extensive in the school, with SM degrees in Mechanical Engineering, Naval Architecture and Marine Engineering, Ocean Engineering, Oceanographic Engineering (jointly with WHOI), and the MEng in Manufacturing. The department also offers Naval Engineer and Mechanical Engineer professional degrees and doctoral programs spanning all its core disciplines plus joint statistics programs.

Nuclear Science and Engineering (Course 22)

The Department of Nuclear Science and Engineering offers the SB in Nuclear Science and Engineering and the flexible SB in Engineering for undergraduates. Graduate students can pursue the SM, the Nuclear Engineer degree, and doctoral programs in Nuclear Science and Engineering, Computational Nuclear Science and Engineering, and Nuclear Engineering and Computation. As the world grapples with energy security and climate change, this department’s work on nuclear fusion, advanced reactor designs, and nuclear materials has never been more relevant.

Interdisciplinary Programs

Beyond its nine core departments, MIT’s School of Engineering offers an impressive portfolio of interdisciplinary programs that reflect the increasingly cross-cutting nature of modern engineering challenges. These programs draw faculty and resources from multiple departments to create educational experiences that no single department could offer alone.

The Climate System Science and Engineering program (Course 1-12) addresses the urgent need for engineers who understand the complex interactions between Earth’s climate systems and human infrastructure. Computation and Cognition (Course 6-9) bridges computer science and brain science, preparing students for the growing field of computational neuroscience and cognitive AI. The Computational and Systems Biology program brings together engineers, biologists, and computer scientists to tackle the enormous challenge of understanding biological complexity through computational modeling.

Computer Science, Economics, and Data Science (Course 6-14) trains students at the vital intersection of technology and markets, while Data, Systems, and Society focuses on the social implications of engineered systems. The Supply Chain Management program offers both MASc and MEng degrees addressing global logistics challenges, and System Design and Management prepares engineering leaders for complex organizational challenges. The Transportation program combines engineering with policy to shape the future of mobility systems worldwide.

For students interested in how other universities approach interdisciplinary engineering education, our guide on NYU Engelberg Center on Innovation Law and Policy offers a fascinating look at how technology intersects with legal frameworks.

Flexible Engineering Degree Programs

MIT offers a distinctive flexible SB in Engineering degree (undesignated Bachelor of Science) through six of its nine departments: Mechanical Engineering, Aeronautics and Astronautics, Chemical Engineering, Civil and Environmental Engineering, Materials Science and Engineering, and Nuclear Science and Engineering. These programs are designed for students who wish to pursue broader studies than a traditional four-year departmental program typically accommodates.

Students in flexible degree programs can declare additional concentrations that fall into three categories. The first category encompasses broad interdisciplinary themes such as energy, health, and the environment. The second includes cross-cutting technical concentrations like robotics and controls, computational engineering, and engineering management. The third allows students to design their own concentration under faculty supervision, enabling truly personalized educational pathways.

Beyond concentrations, MIT engineering students may pursue double majors combining engineering with management, political science, economics, sciences, or other engineering fields. The university also supports arrangements for simultaneous undergraduate and graduate degrees, allowing exceptional students to earn both an SB and SM during their time at MIT. This flexibility reflects MIT’s understanding that the most transformative engineers of the 21st century will be those who can synthesize knowledge across multiple domains.

Research Centers and Laboratories

The MIT School of Engineering is home to 21 interdepartmental research centers, laboratories, and programs that form the backbone of its research enterprise. These facilities provide students and faculty with access to world-class equipment, collaborative spaces, and funding for groundbreaking investigations.

Among the most prominent is the Computer Science and Artificial Intelligence Laboratory (CSAIL), the largest research lab at MIT with hundreds of researchers working on everything from machine learning and robotics to systems security and computational biology. The Koch Institute for Integrative Cancer Research brings engineers and scientists together to develop revolutionary cancer diagnostics and treatments. The Laboratory for Information and Decision Systems (LIDS) focuses on the mathematical foundations of information systems and decision-making under uncertainty.

The MIT Energy Initiative coordinates energy research across the institute, addressing clean energy technology, policy, and deployment. The Materials Research Laboratory and Materials Processing Center provide shared facilities for advanced materials characterization and fabrication. The Microsystems Technology Laboratories offer cleanroom fabrication capabilities for nanotechnology research. Other notable centers include the Center for Computational Science and Engineering, the Deshpande Center for Technological Innovation, the Industrial Performance Center, and the Singapore-MIT Alliance for international research collaboration.

The MIT Climate and Sustainability Consortium addresses the pressing challenge of climate change through cross-disciplinary research, while the Sociotechnical Systems Research Center examines how engineered systems interact with human organizations and societies. The Research Laboratory of Electronics, one of MIT’s oldest research labs, continues to push the boundaries of electronic and photonic technologies.

Enrichment and Innovation Programs

MIT’s School of Engineering has a storied tradition of pioneering programs that extend education beyond the classroom. The New Engineering Education Transformation (NEET), launched in 2017, fundamentally reimagines undergraduate engineering education with a focus on preparing students for 21st-century machine and system development. NEET brings together students from different departments to work on real-world challenges using project-based learning approaches.

The MIT Sandbox Innovation Fund Program, launched in 2016, provides up to $25,000 in funding for student-initiated ideas along with mentoring from MIT faculty and external partners. This program develops the knowledge, skills, and attitudes necessary for innovation and entrepreneurship, reflecting MIT’s belief that great engineers must also be great innovators. The Undergraduate Practice Opportunities Program (UPOP), designed for sophomores, provides intensive experiential-learning workshops and internships that emphasize the professional abilities and attitudes essential for engineering work outside academic contexts.

SuperUROP, launched in 2012, expands the traditional Undergraduate Research Opportunities Program for juniors and seniors, providing extended time, training, resources, and guidance for deep scientific and engineering inquiry with the goal of producing publication-worthy findings. The Bernard M. Gordon-MIT Engineering Leadership Program, established in 2008, develops the leadership capabilities that engineers need to drive projects and organizations. StartMIT, launched in 2014, introduces students to entrepreneurship through intensive workshops and mentoring.

The historical depth of MIT’s enrichment programs is remarkable. The David H. Koch School of Chemical Engineering Practice, established in 1916, created the nation’s first industrial internship program. Leaders for Global Operations (1988) pioneered the SM/MBA dual degree model. MITx and edX (2011) revolutionized online education worldwide. Each of these programs reflects MIT’s ongoing commitment to innovating not just in technology, but in how technology is taught.

Admissions Process

MIT’s undergraduate admissions process is holistic and student-centered, evaluating each application within its unique context. The process looks for outstanding academic achievement combined with a strong match between the applicant and the Institute’s mission and culture. Importantly, applicants do not apply to a particular school, department, or program. While the application asks about preferred fields of study, admitted students are not required to choose a major until sophomore year, ensuring that every student has the freedom to explore before committing to a specialization.

Graduate admissions at MIT work differently, with applicants applying directly to their department or program of interest. Each department sets its own specific requirements, which may include standardized test scores, research experience, letters of recommendation, and statements of purpose. The competitive nature of MIT graduate admissions means that successful applicants typically demonstrate exceptional academic records, meaningful research experience, and clear alignment with the department’s research priorities.

For prospective students considering multiple elite engineering schools, comparing MIT’s approach with institutions like the George Washington University’s professional programs can provide valuable perspective on different educational philosophies and program structures.

Rankings and Recognition

The MIT School of Engineering’s reputation is unparalleled in global higher education. US News and World Report has ranked MIT’s engineering programs number one every single year the survey has been conducted — an achievement no other institution can claim. QS World University Rankings consistently place MIT at the very top as well. These rankings reflect not just the quality of education but the transformative impact of MIT engineering research on science, technology, and society.

The quality of MIT’s faculty is perhaps best illustrated by the fact that nearly one-third of the School’s current and emeritus faculty and research staff have been inducted into the National Academy of Engineering, one of the highest professional distinctions an engineer can achieve. The leadership team, headed by Interim Dean Maria Yang (Gail E. Kendall Professor of Mechanical Engineering), includes Associate Dean Hamsa Balakrishnan (William E. Leonhard Professor of Aeronautics and Astronautics) and assistant deans for diversity, development, human resources, and finance.