Biomedical Engineering
The Master of Science in Biomedical Engineering provides a comprehensive and research-oriented curriculum designed for students seeking to understand how engineering principles intersect with biological systems to advance healthcare technologies. The program combines coursework in biomaterials, biomechanics, medical imaging, and computational modeling, offering learners both the theoretical foundations and applied methodologies needed to design and evaluate biomedical solutions. Through laboratory experimentation, quantitative analysis, and interdisciplinary instruction, students develop the ability to investigate physiological processes, analyze biological data, and engineer technologies that support diagnosis, treatment, and patient care. This structure ensures a deep scientific understanding that informs innovation across biomedical fields.
The program also emphasizes practical skill development through collaborative research projects, industry-focused workshops, and exposure to clinical and engineering environments. Students strengthen competencies in device design, experimental methods, regulatory considerations, and cross-disciplinary communication while working alongside clinicians, scientists, and engineering specialists. Engagement with real-world problems—ranging from prosthetic development to imaging algorithms and bio-sensing systems—helps learners understand how engineering solutions can improve health outcomes. By combining scientific rigor with hands-on innovation, the program prepares graduates to contribute meaningfully to emerging biomedical technologies and translational research initiatives.
Key information
Key Facts
- Program Title: Biomedical Engineering
- Degree Type: Master of Science
- Duration: 2 years
- Mode of Study: Full-time, On Campus
- Application Deadline: 31 January 2026
- Location: Northwestern University, United States
- Field of Study: Bio & Biomedical Engineering
- Language of Instruction: English
Program Structure
Semester 1 – Foundations of Biomedical Engineering & Quantitative Methods
• Biomaterials Science
• Biomedical Signal Analysis
• Physiology for Engineers
• Quantitative Methods in Biomedical Research
Semester 2 – Systems Analysis, Imaging & Applied Engineering
• Medical Imaging Principles
• Biomechanics and Tissue Modeling
• Bioinstrumentation Systems
• Engineering Laboratory / Applied Project
Semester 3 – Advanced Biomedical Technologies & Research Development
• Advanced Biomaterials and Regenerative Concepts
• Computational Modeling in Biomedical Engineering
• Regulatory Science and Medical Device Development
• Research Seminar / Design Studio
Semester 4 – Professional Practice, Innovation & Master’s Thesis
• Innovation in Biomedical Engineering
• Clinical and Research Ethics
• Thesis Research and Data Analysis
• Master’s Thesis Presentation
Career Opportunities
Graduates of this program are equipped for technical, analytical, and research-focused roles across healthcare, biotechnology, and engineering sectors. Many professionals work in medical device companies, biotechnology firms, research hospitals, and pharmaceutical organizations, contributing to device design, diagnostic technology development, clinical engineering support, and biomedical research. Responsibilities may include designing medical devices, analyzing biological systems, validating prototypes, conducting laboratory experiments, evaluating regulatory requirements, and collaborating with interdisciplinary teams on health-focused innovation. With strong preparation in engineering principles and biological analysis, graduates are also well suited for roles in computational biology, imaging technology, rehabilitation engineering, and emerging areas such as wearable health systems or personalized medicine. The program additionally lays a strong foundation for doctoral studies or careers in academic and clinical research.
Why Choose This Program
This program is ideal for students who want to merge engineering expertise with biomedical insight to address complex healthcare challenges. Its curriculum emphasizes interdisciplinary innovation, scientific depth, and applied engineering practice, providing a carefully structured progression from foundational biological principles to advanced technological development. Over two years, students benefit from research mentorship, hands-on laboratory training, exposure to real clinical problems, and opportunities to complete a thesis that demonstrates technical and scientific maturity. Learners also gain access to modern biomedical tools, interdisciplinary collaboration, and professional skill development that prepares them for rapidly evolving areas of healthcare technology. For individuals aiming to contribute to impactful medical innovations or pursue advanced biomedical research, this program offers a rigorous and future-focused academic pathway.
Contact Information
For further information, please contact the admissions office at:
Phone: +1 312 555 2040
Email: admissions@northwestern.edu
Address: University of Northwestern, 633 Clark Street, Evanston, IL 60208, United States
