

The four-year Biomedical Engineering program provides a comprehensive foundation in engineering principles, biological sciences, and medical applications. Students explore mechanics, bioinstrumentation, molecular biology, and biomaterials, integrating theoretical knowledge with hands-on laboratory experience and design projects. The curriculum emphasizes problem-solving, interdisciplinary collaboration, and applied research, enabling students to develop innovative solutions in healthcare, medical devices, and biotechnology. Through seminars, independent research, and team projects, students gain a deep understanding of the intersection between engineering, biology, and medicine, preparing them for both academic and professional challenges.
Throughout the program, students engage in experimental design, computational modeling, and biomedical research projects addressing real-world medical and engineering challenges. Emphasis is placed on critical thinking, design innovation, and technical skills, preparing graduates for careers in medical devices, healthcare technology, research, and biotechnology industries. By integrating theoretical knowledge with practical experience, learners acquire the knowledge and experience necessary to pursue advanced studies, professional practice, or research careers in biomedical engineering and related fields.
Year 1 – Foundations in Biomedical Engineering
• Introduction to Biomedical Engineering
• Fundamentals of Biology and Chemistry
• Calculus and Physics for Engineers
• Academic Writing and Research Methods
Year 2 – Intermediate Biomedical and Engineering Studies
• Biomaterials and Bioinstrumentation
• Molecular and Cellular Biology
• Systems and Physiological Engineering
• Elective Modules in Biomedical Engineering
Year 3 – Advanced Topics & Applied Research
• Medical Device Design
• Biomechanics and Tissue Engineering
• Computational Modeling in Biology
• Research Projects and Seminars
Year 4 – Capstone & Thesis
• Independent Research / Thesis
• Seminar on Biomedical Engineering Applications
• Presentation and Portfolio Development
• Advanced Elective Modules
Graduates of this program are prepared for careers in biomedical engineering, medical device development, healthcare technology, biotechnology research, clinical applications, and academic research. The program equips students with analytical, experimental, and design skills, enabling them to work effectively in professional, healthcare, and research environments. Opportunities for internships, applied projects, and laboratory work provide practical experience and insight, enhancing employability and readiness for industry, healthcare, and research-focused roles. Many graduates also pursue advanced degrees in biomedical engineering, bioengineering, or related fields to expand expertise and career opportunities.
This program offers a comprehensive interdisciplinary approach, integrating engineering, biology, and medical sciences to equip students with skills necessary for modern biomedical and healthcare challenges. Students develop analytical, experimental, and design skills through laboratory work, simulations, and independent research projects. The curriculum emphasizes both theoretical knowledge and practical application, ensuring graduates leave with both knowledge and experience necessary to pursue professional careers, advanced studies, or research opportunities in biomedical engineering, healthcare technology, and biotechnology.
For further information, please contact the admissions office at:
Phone: +1 617-253-1000
Email: admissions@mit.edu
Address: University of MIT, 77 Massachusetts Avenue, Cambridge, MA 02139, USA