Robotics Engineering
What Is Biomedical Engineering – Bio-Robotics About?
At Florida Atlantic University, the Bio-Robotics track in Biomedical Engineering brings together biology, neuroscience, and robotics. You’ll explore how engineering and life sciences intersect to solve real healthcare challenges. This program blends advanced science courses—like genetics, chemistry, and neuroengineering—with hands-on engineering experiences in biomechanics, controls, programming, signal processing, and robotics. You’ll gain practical skills through lab-based robotics courses and complete your journey with a two-semester multidisciplinary design project. Graduates are prepared for careers in medical robotics and any field that uses robotics technology.
About Bio-Robotics at FAU
Florida Atlantic is one of the few universities offering a dedicated Bio-Robotics track with a strong focus on both robotics and artificial intelligence. The program features a 4+1 option, letting you earn a Master’s in Artificial Intelligence alongside your bachelor’s degree. You’ll work with faculty on innovative research, gain hands-on experience in labs, and collaborate on projects that prepare you for the fast-growing field of medical robotics. The curriculum is designed to help you build both technical expertise and real-world problem-solving skills.
Degrees Offered at Florida Atlantic
Undergraduate
- Bachelor of Science in Biomedical Engineering – Bio-Robotics Track
Graduate
- 4+1 Master’s in Artificial Intelligence (AI) option for qualified undergraduates
Explore Degree Programs in Biomedical Engineering
Educational Objectives & Student Outcomes
2. Foster a dynamic research environment where you’ll engage in pioneering projects and apply discoveries to real-world healthcare problems.
3. Offer hands-on experience through internships, research, and industry collaborations.
4. Focus on interdisciplinary research and collaboration to develop new technologies and therapies.
5. Build a collaborative community that encourages teamwork, mentorship, and engagement with industry and clinical partners.
2. Engage in research, design experiments, analyze data, and interpret results to advance the field.
3. Communicate technical information effectively to both technical and non-technical audiences.
4. Collaborate in multidisciplinary teams with engineers, scientists, and clinicians.
5. Commit to lifelong learning and professional development.
6. Recognize and address ethical issues in biomedical engineering practice.