Integrate knowledge of the life sciences with the principles of engineering to understand how biological systems work so you can design and develop technologies, materials and devices that will have a positive impact on human health and well-being.
What you’ll study
- Molecular Biology and Biochemistry
- Engineering Physiology
- Biomaterials
- Biomechanics
- Biomedical Device Design
- Tissue Engineering
Careers
- Biomedical engineer
- Product development engineer
- Field service engineer
- Quality control engineer
- Technical sales specialist
- Process design engineer
- Process safety engineer
Biological Engineers use engineering methods and the principles of biology to solve some of the greatest challenges facing society today. Graduates are positioned to work in a variety of industries – such as medical devices, diagnostics, genetics, healthcare industry support, pharmaceutical manufacture, drug discovery, environmental remediation, or agricultural advancement – as well as in nonprofit and academic research. A broad area of study, bioengineering can include elements of electrical and mechanical engineering, computer science, chemistry and biology.
Details about the specific degree and college requirements for the BS – Biochemical Engineering degree are found in the UGA Bulletin.
Program mission
The University of Georgia Biological Engineering undergraduate program provides engineering education in a liberal arts background producing graduates with the ability to integrate knowledge from several disciplines including skills to analyze and design relevant systems for solving problems. The graduates of this program have a deep background in engineering, mathematical and biological sciences, and the ability to design systems that integrate the biology with technology.
Program educational objectives
The following Program Educational Objectives describe what graduates from the biological engineering program are expected to attain within 3-5 years after graduation:
- Apply a high level of technical expertise, critical thinking, and collaborative and communication skills to recognize, define and develop innovative solutions for complex biological and medical problems that require integration of engineering, biological, physical, economic, and environmental constraints.
- Establish themselves as ethically, socially and culturally aware professionals and leaders who contribute effectively within their organizations and communities.
- Engage in lifelong learning and professional development, including graduate study, continuing education, or other pathways that support sustained career growth.
