B.A. Biophysics

4 Years On Campus Bachelors Program

Duke University

Program Overview

Duke University’s B.A. in Biophysics brings together physics, mathematics, biology, and chemistry to help students understand how physical principles shape living systems. It is a good choice for students who enjoy both biology and analytical problem-solving and want to explore careers or further study in areas such as biotechnology, medicine, biomedical research, consulting, or science-related fields.

Curriculum Structure

Year 1: Students start by building a strong foundation in mathematics, chemistry, and physics. Courses such as MATH 122L: Introductory Calculus II With Applications, CHEM 101DL: Core Concepts in Chemistry, and PHYSICS 161D: Fundamentals of Physics I introduce the core scientific concepts needed for the major, followed by PHYSICS 162D: Fundamentals of Physics II.

Year 2: Students begin applying their physical science knowledge to biological systems through courses such as BIOLOGY 201L: Molecular Biology and either BIOLOGY 202L: Genetics and Evolution or BIOLOGY 220: Cell and Developmental Biology. They also continue developing their mathematical and experimental skills through Multivariable Calculus, Linear Algebra, and physics laboratory coursework.

Year 3: Students move into more advanced concepts in physics and physical chemistry, with courses such as PHYSICS 264L: Optics and Modern Physics and PHYSICS 363: Thermal Physics. Students following the Physical Chemistry option can instead explore CHEM 310: Physical Chemistry, CHEM 311: Physical Chemistry, and related laboratory work.

Year 4: Students bring their knowledge together through advanced biophysics courses including PHYSICS 364L, PHYSICS 414: Introduction to Biophysics, and PHYSICS 415: Biophysics II. They also complete an approved interdisciplinary elective, with options such as BIOCHEM 301: Introduction to Biochemistry I, BME 244L: Quantitative Physiology, CHEM 302: Biophysical Chemistry, MATH 573S: Modeling Biological Systems, and NEUROSCI 201: Fundamentals of Neuroscience.

Focus Areas

Biophysics, molecular biology, genetics, cell and developmental biology, physical chemistry, biochemistry, biomedical engineering, quantitative physiology, neuroscience, mathematical modelling, electronics, computational methods, biological research, and medical science.

Learning Outcomes

Students develop the ability to use physics and mathematics to understand biological systems and investigate biological questions from a quantitative perspective. They also gain an understanding of molecular and cellular processes, experimental methods, data analysis, and the connections between physics, chemistry, and biology.

Professional Alignment (Accreditation)

The B.A. in Biophysics is a science-focused undergraduate degree rather than a separately accredited engineering program. Duke positions the program as suitable preparation for areas including biotechnology, industrial research, consulting, medicine, journalism, law, and science teaching.

Reputation (Employability Rankings)

Duke University is a highly regarded research university with an interdisciplinary environment that brings together Physics, Biology, Chemistry, Biomedical Engineering, and the Medical School. This broad research environment gives Biophysics students opportunities to develop scientific knowledge and experience that can support further study and careers across the biological, biomedical, and physical sciences.

Experiential Learning (Research, Projects, Internships etc.)

The B.A. in Biophysics at Duke gives students opportunities to turn scientific concepts into practical skills through laboratory work, independent research, programming, and data analysis. Students can connect with faculty across Physics, Biology, Chemistry, Biomedical Engineering, and the Medical School, while Duke’s research facilities provide an environment where students can explore biological, biomedical, and physical science research. The program also encourages students to develop programming skills that can be used to analyse biological data and support experimental work.

Students can gain practical experience through:

Experimental laboratory work: Courses such as PHYSICS 164L, PHYSICS 165L, and PHYSICS 364L give students hands-on experience with experiments, data collection, analysis, and laboratory techniques.
Research Independent Study: Students can undertake an independent research project in biophysics with guidance from faculty in areas such as Physics, Biology, Chemistry, Biomedical Engineering, or the Medical School.
Programming and data analysis: Duke recommends courses such as COMPSCI 101L or Engineering 53L to help students develop programming skills that can be applied to biological data analysis and experimental research.
Faculty research groups: Students can connect with biophysics faculty, attend research-group meetings, and explore ongoing projects to identify research opportunities that match their interests.
French Family Science Center: The centre includes research and teaching laboratories focused on areas such as genomics, biological chemistry, physical biology, and bioinformatics, offering a valuable environment for interdisciplinary scientific work.
Duke Free Electron Laser Laboratory: The facility includes the Keck Life Sciences Research Laboratory and supports research in biological and biomedical sciences relevant to the broader field of biophysics.
Interdisciplinary research: Students can explore research opportunities across Engineering, Medicine, Biology, Chemistry, Computer Science, Mathematics, Neuroscience, and Psychology, allowing them to approach biological questions from different scientific perspectives.
Structural Biology and Biophysics: Students interested in proteins and biological macromolecules can explore research opportunities focused on understanding their structure and function.

Progression & Future Opportunities

Duke University’s B.A. in Biophysics gives students a strong and flexible foundation for careers that bring together biology, physics, technology, healthcare, and business. The program can prepare graduates for opportunities in biotechnology, industrial research, consulting, medicine, science communication, law, and science education.

Typical career roles include:

Biotechnology Professional
Industrial Researcher
Science Consultant
Science Educator
Career support: Duke provides career planning and employment resources through its Career Center. Students can also build valuable experience through faculty-led research, independent study, summer research opportunities, and senior thesis projects.
Research experience: Students are encouraged to gain hands-on research experience with faculty across Physics, Biology, Chemistry, Biomedical Engineering, and the Medical School. Duke also provides access to research opportunities through facilities such as the Triangle Universities Nuclear Laboratory and the Free Electron Laser Laboratory, as well as external research programmes and organisations.
Industry connections: Duke supports connections between its research community and organisations in areas such as biotechnology, technology, and venture capital. These connections can give students exposure to research, innovation, and potential commercial applications of scientific discoveries.
Employment statistics and salary: Duke does not publish a specific employment rate or average salary for graduates of the B.A. in Biophysics. The university does track graduate outcomes through its career services, including employment, industries, employers, job categories, and further education.
Strong career preparation: The combination of biology, chemistry, physics, mathematics, programming, statistics, and research gives graduates a versatile skill set. This interdisciplinary background can be particularly useful for students who want to move into biotechnology, scientific research, healthcare, consulting, or other science-related careers.
Long-term accreditation value: Duke University is institutionally accredited by the Southern Association of Colleges and Schools Commission on Colleges (SACSCOC). This provides formal academic recognition of Duke’s undergraduate degrees and supports their value for further study and professional progression.
Graduation outcomes: After graduation, students can enter the workforce, continue into graduate-level research, or pursue professional education. The broad structure of the B.A. also allows students to adapt their next step to their individual interests, whether that means research, medicine, business, law, or another related field.

Further Academic Progression:

After completing the B.A. in Biophysics, students can continue their education through master’s or doctoral programmes in areas such as biophysics, biotechnology, biology, biochemistry, biomedical sciences, and other related scientific disciplines. Students interested in healthcare can also use the degree as a foundation for medical education, while those interested in other professional careers may progress to fields such as law or business.

The program’s emphasis on quantitative skills, programming, statistics, independent study, and research can also help students prepare for more specialised postgraduate study and research careers.