M. Tech. Biomedical Engineering

Department of Biotechnology & Bioengineering

Programme Level

Post Graduate

Duration

2 Years

About the Programme

The M.Tech. Biomedical Engineering program offered by the Department of Biotechnology & Bioengineering at the School of Biosciences and Technology is designed to provide an in-depth understanding of biomedical instrumentation, biomechanics, biomaterials, biomedical imaging, and computational techniques. The curriculum integrates engineering principles with medical sciences, enabling students to develop innovative healthcare technologies. With courses in machine learning, AI, bioethics, and biosensors, the program fosters research, problem-solving, and technical communication skills. Through electives and research projects, students gain expertise in biomedical signal processing, tissue engineering, and medical imaging.

Eligibility

B.E./B.Tech. degree in Biomedical Engineering, Biotechnology, Biochemical Engineering, Electronics & Communication Engineering, Electrical Engineering, Instrumentation Engineering, Mechanical Engineering, Chemical Engineering, Bioinformatics, or allied disciplines; OR MBBS/BDS/BPT/BOT/B.Pharm; OR M.Sc. in Medical Physics, Biophysics, Biotechnology, Life Sciences, or related disciplines with a minimum aggregate of 60% or equivalent CGPA. Candidates with valid GATE/CUET-PG scores shall be given preference as per university norms.

Fee Structure

Duration

2 Years

Tuition Fee (per annum)

77,000

Exam Fee (per annum)

20,000

Medical Insurance (Per Annum)

650

Caution Money (One Time Payment )

2000

Student ID Card

1000

Program Structure

Career Pathways

Graduates of M.Tech. Biomedical Engineering program can pursue careers in biomedical device industries, healthcare technology firms, hospitals, R&D organizations, and regulatory agencies. They can work as biomedical engineers, clinical engineers, research scientists, and AI specialists in healthcare. Opportunities exist in biomechanics, biomaterials development, bioinformatics, and prosthetics design. The program also prepares students for entrepreneurship in medical device innovation or further research in academia.

Programme Objectives

Advanced Biomedical and Technological Competence: To develop advanced knowledge and technical proficiency in biomedical engineering, integrating engineering principles, medical sciences, and computational methods to analyze and solve complex healthcare and biomedical system problems.

Research, Innovation, and Translational Application: To train students to design, develop, and evaluate innovative biomedical devices, diagnostics, and therapeutic technologies through interdisciplinary research, experimental investigation, and AI-enabled computational approaches.

Professional Leadership, Ethics, and Lifelong Learning: To prepare graduates for leadership roles in industry, healthcare, and academia by fostering ethical responsibility, effective communication, interdisciplinary collaboration, and continuous professional development.

Programme Outcomes

Research and Problem Solving in Biomedical Systems: Demonstrate the ability to independently investigate, formulate, and solve complex problems in biomedical engineering by integrating engineering principles with life sciences for healthcare and clinical applications.

Design and Development of Biomedical Devices and Systems: Design and develop safe, effective, and affordable biomedical instruments, systems, and therapeutic solutions by applying interdisciplinary knowledge and systems-level approaches, in compliance with ethical, safety, and regulatory standards.

Advanced Biomedical Knowledge: Attain a high level of expertise in core and emerging areas of biomedical engineering such as medical imaging, biosensors, biomaterials, signal processing, and biomechanics, with the ability to critically analyze and synthesize complex information.

Experimental, Computational, and Analytical Proficiency: Apply advanced analytical, experimental, and computational tools to model biological systems, interpret biomedical data, and optimize solutions for diagnostics, treatment, and rehabilitation technologies.

Communication and Interdisciplinary Collaboration: Effectively communicate technical and scientific knowledge through scholarly writing and oral presentations, and demonstrate the ability to work collaboratively in multidisciplinary teams involving engineers, clinicians, researchers, and industry stakeholders.

Innovation, Ethics, and Societal Impact: Undertake original research and contribute to the development of innovative biomedical technologies that address pressing medical and societal challenges while upholding professional ethics, patient safety, and global healthcare needs.

Programme Educational Objectives

Interdisciplinary Expertise & Innovation – Graduates will acquire expertise in biomedical engineering by integrating engineering principles with medical sciences to develop innovative healthcare technologies.

Research & Problem-Solving – Graduates will engage in interdisciplinary research, applying computational, analytical, and experimental approaches to solve complex biomedical challenges.

Leadership & Lifelong Learning – Graduates will demonstrate leadership in industry, academia, and healthcare sectors while continuously updating their knowledge through lifelong learning and professional development.

Programme Specific Outcomes (PSOs)

Apply biomedical engineering principles to design and develop innovative medical devices, diagnostic tools, and healthcare solutions.

Utilize advanced computational techniques, signal processing, and imaging technologies for biomedical research and clinical applications.

Integrate knowledge of biomaterials, biomechanics, and artificial intelligence to address challenges in healthcare, rehabilitation, and biomedical technology.

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