Faculty of Engineering - Biomedical Engineering
The Department of Biomedical Engineering at British International University (BIU) offers a comprehensive program that combines principles of engineering with biological and medical sciences. Students are trained to design, develop, and improve medical devices, diagnostic equipment, and healthcare technologies. The department focuses on bridging the gap between engineering and healthcare, preparing graduates to work on innovative solutions that enhance patient care, medical treatment, and healthcare system efficiency. With a strong emphasis on interdisciplinary learning, the program equips students to tackle complex problems in medical technology, biomechanics, biomaterials, and more.
- Duration: The Biomedical Engineering program is a four-year undergraduate degree.
- Languages of Instruction: The program is conducted in English, ensuring that students can engage with international research, collaborate with global healthcare professionals, and pursue career opportunities worldwide.
The program is open to students who have a strong academic background in mathematics, physics, and biology. Enrollment is competitive, and applicants are required to meet specific academic and language proficiency requirements. Prospective students can apply online through BIU’s application portal.
The curriculum integrates engineering principles with healthcare applications, providing students with the skills necessary to innovate in the medical field. Key components of the program include:
- Biomechanics: Study of the mechanical aspects of the human body, including musculoskeletal modeling, joint mechanics, and prosthetics.
- Medical Imaging: Courses on imaging technologies, such as MRI, X-rays, and ultrasound, focusing on their applications in diagnosing and monitoring diseases.
- Biomaterials: Exploration of materials used in medical devices, implants, and prosthetics, focusing on their compatibility and performance in the human body.
- Medical Instrumentation: Study of the design and development of medical devices and instruments used for diagnostics, monitoring, and therapeutic purposes.
- Bioelectricity: Understanding the electrical signals in the body, including neural and muscular electrical activities, and how to design devices to interact with these signals (e.g., pacemakers, EEGs).
- Signal Processing: Techniques for analyzing biological signals and data from medical devices to extract useful information for diagnosis and treatment.
- Health Informatics: Introduction to the management and analysis of healthcare data, including electronic health records (EHRs) and telemedicine technologies.
- Regulatory and Ethical Issues: Study of the ethical considerations and regulatory requirements involved in developing medical technologies and devices.
Graduates of the Biomedical Engineering program will be able to:
- Design Medical Devices: Develop and design medical instruments, implants, and diagnostic equipment to meet healthcare needs.
- Apply Engineering to Healthcare: Use engineering principles to solve medical problems and improve patient outcomes through technology.
- Understand Biological Systems: Have a strong understanding of biological systems, including the human body’s mechanics and bioelectric signals, to design appropriate technologies.
- Innovate Healthcare Solutions: Be capable of innovating solutions to healthcare challenges, focusing on improving patient care, medical treatments, and diagnostic tools.
- Work in Multidisciplinary Teams: Collaborate effectively with healthcare professionals, engineers, and researchers to develop interdisciplinary solutions in the medical field.
- Ensure Safety and Compliance: Design healthcare technologies that meet industry standards and regulations, ensuring patient safety and product reliability.
- Interdisciplinary Knowledge: The program blends engineering, biology, and healthcare, providing students with a diverse skill set applicable to a variety of sectors in healthcare and technology.
- Hands-On Experience: Students have the opportunity to work on real-world medical engineering projects, gaining practical experience with medical devices, technology, and healthcare applications.
- Research and Innovation: BIU encourages students to engage in cutting-edge research, particularly in areas like medical robotics, diagnostic technology, and personalized medicine.
- Global Impact: Graduates of the program will be equipped to work on technologies that directly impact global healthcare, improving lives through innovation in medical engineering.
- Industry Collaboration: The department has partnerships with healthcare organizations and medical device companies, providing opportunities for internships, industry projects, and job placements.
- High Demand in Healthcare Sector: Biomedical engineering is one of the fastest-growing fields, with high demand for professionals who can design and implement new technologies to improve medical care and treatment.