COURSE CURRICULUM

The Bachelor of Science in Biomedical Engineering curriculum is designed over four years to integrate engineering principles with life sciences, preparing students to develop innovative healthcare technologies. In the first year, students build a strong foundation in mathematics, biology, chemistry, and physics. Courses such as calculus, biology with lab, and university chemistry introduce essential scientific concepts, while engineering design projects and computer labs provide early exposure to technical tools and problem-solving. An introduction to biomedical engineering helps students understand the scope and applications of the field.In the second year, the program becomes more focused on advanced science and engineering topics. Students study calculus 3, differential equations, and physics, which strengthen their analytical abilities. Courses like anatomy and physiology and general, organic, and biochemistry deepen their understanding of the human body and biological systems. Engineering-focused subjects such as statics, design studios, and biomedical design and prototyping allow students to apply theory to real-world problems. Additionally, biomedical ethics and regulations introduce important considerations related to healthcare technologies.The third year emphasizes specialization and practical applications. Students explore topics such as biomechanics, biotransport, biomaterials, and bioinstrumentation, gaining insight into how engineering principles are applied to biological systems. Courses in electronics and circuits help students understand the technical aspects of medical devices, while electives allow them to explore areas like wearable technology or medical devices. Leadership and professional development courses prepare students for teamwork and industry roles.In the fourth year, students focus on advanced topics and research. They study areas such as medical imaging, tissue engineering, and tissue mechanics, which are critical in modern healthcare innovation. The program culminates in a two-part project sequence where students design and develop solutions to real-world biomedical problems. Overall, the curriculum equips graduates with strong technical, analytical, and practical skills needed for careers in biomedical engineering or advanced studies.