Biomedical Engineering
2,516 Tuition Fee/year
SepStarting Month
Programme overview
Degree
BSc
Study Level
Undergraduate
Study Mode
Blended
Biomedical Engineering is an interdisciplinary field that applies engineering principles to medicine and biology, with the ultimate goal of improving human health. Our undergraduate program is designed to equip students with both the theoretical knowledge and practical skills required to develop innovative medical technologies and contribute to the future of healthcare. The Biomedical Engineering curriculum offers a strong foundation in mathematics, physics, biology, chemistry, and core engineering disciplines. As students advance through the program, they specialize in a variety of subjects including: Biomedical Electronics – Focuses on the design, development, and application of electronic systems used in medical diagnosis and treatment. Students learn how to build circuits for biosignal acquisition, filtering, amplification, and real-time monitoring of physiological signals like ECG, EEG, and EMG. Biomechanics – Understanding mechanical principles in the human body to analyze motion and forces on tissues and organs. Biomaterials – Studying materials compatible with the human body, used in implants and prosthetics. Medical Imaging – Exploring technologies such as MRI, CT, ultrasound, and image processing techniques. Biomedical Instrumentation – Designing devices for clinical monitoring, therapeutic applications, and rehabilitation. Tissue Engineering & Regenerative Medicine: Engineering of functional tissue substitutes to restore, maintain, or improve damaged tissues and organs. The program emphasizes laboratory work and hands-on experience. Students engage in electronics/instrumentation and biomaterials/chemistry labs, biomedical signal processing, and system design projects that simulate real clinical and engineering challenges. The program maintains strong ties with hospitals, medical device companies, and research institutions. Students are encouraged to undertake internships or cooperative education experiences during their studies. These industry partnerships enhance students’ professional development, provide exposure to real-world challenges, and often lead to employment opportunities upon graduation. Graduates of this program will be able to: Apply engineering and electronics principles to analyze and develop biomedical devices and systems Acquire, process, and interpret physiological signals using analog and digital techniques Integrate hardware and software systems for real-time health monitoring and diagnostics Understand medical device regulations, safety standards, and ethical considerations Work effectively in interdisciplinary teams and communicate technical information clearly Biomedical Engineering graduates are prepared for careers in: Medical electronics and device design Clinical engineering and hospital technology systems Research and development in health technologies Biomedical signal processing and health informatics Research and development engineer in biotechnology or pharmaceutical companies Regulatory affairs specialist Software engineer for health technology systems Graduate student or researcher in biomedical sciences or engineering
Programme overview
Degree
BSc
Study Level
Undergraduate
Study Mode
Blended
Biomedical Engineering is an interdisciplinary field that applies engineering principles to medicine and biology, with the ultimate goal of improving human health. Our undergraduate program is designed to equip students with both the theoretical knowledge and practical skills required to develop innovative medical technologies and contribute to the future of healthcare. The Biomedical Engineering curriculum offers a strong foundation in mathematics, physics, biology, chemistry, and core engineering disciplines. As students advance through the program, they specialize in a variety of subjects including: Biomedical Electronics – Focuses on the design, development, and application of electronic systems used in medical diagnosis and treatment. Students learn how to build circuits for biosignal acquisition, filtering, amplification, and real-time monitoring of physiological signals like ECG, EEG, and EMG. Biomechanics – Understanding mechanical principles in the human body to analyze motion and forces on tissues and organs. Biomaterials – Studying materials compatible with the human body, used in implants and prosthetics. Medical Imaging – Exploring technologies such as MRI, CT, ultrasound, and image processing techniques. Biomedical Instrumentation – Designing devices for clinical monitoring, therapeutic applications, and rehabilitation. Tissue Engineering & Regenerative Medicine: Engineering of functional tissue substitutes to restore, maintain, or improve damaged tissues and organs. The program emphasizes laboratory work and hands-on experience. Students engage in electronics/instrumentation and biomaterials/chemistry labs, biomedical signal processing, and system design projects that simulate real clinical and engineering challenges. The program maintains strong ties with hospitals, medical device companies, and research institutions. Students are encouraged to undertake internships or cooperative education experiences during their studies. These industry partnerships enhance students’ professional development, provide exposure to real-world challenges, and often lead to employment opportunities upon graduation. Graduates of this program will be able to: Apply engineering and electronics principles to analyze and develop biomedical devices and systems Acquire, process, and interpret physiological signals using analog and digital techniques Integrate hardware and software systems for real-time health monitoring and diagnostics Understand medical device regulations, safety standards, and ethical considerations Work effectively in interdisciplinary teams and communicate technical information clearly Biomedical Engineering graduates are prepared for careers in: Medical electronics and device design Clinical engineering and hospital technology systems Research and development in health technologies Biomedical signal processing and health informatics Research and development engineer in biotechnology or pharmaceutical companies Regulatory affairs specialist Software engineer for health technology systems Graduate student or researcher in biomedical sciences or engineering
Admission Requirements
High school diploma Higher Education Institutions exam score
Sep
Tuition fees
International
2,516
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