B.S. Biophysics

4 Years On Campus Bachelors Program

Duke University

Program Overview

Duke University’s B.S. in Biophysics is a great choice for students who are curious about how the principles of physics, chemistry, mathematics, and biology come together to explain living systems. The program is especially suited to students interested in areas such as biophysics, biotechnology, biomedical research, bioengineering, computational biology, neuroscience, and medical science.

Curriculum Structure

Year 1: Students begin by developing a strong foundation in mathematics, chemistry, and physics. Courses such as Introductory Calculus II With Applications, Core Concepts in Chemistry, and Fundamentals of Physics I and II help students build the quantitative and scientific skills needed for more advanced biophysics study.

Year 2: Students start connecting their physical science knowledge with biological systems through courses such as Molecular Biology, Genetics and Evolution, and Cell and Developmental Biology. They also continue developing their mathematical and physics skills through subjects such as Multivariable Calculus, Linear Algebra, and physics laboratory coursework.

Year 3: Students move into more advanced physics and begin applying these concepts directly to biological questions. Key courses include Optics and Modern Physics, Thermal Physics, and Introduction to Biophysics, with the option of taking Physical Chemistry as part of the Physical Chemistry Track.

Year 4: Students build deeper expertise through advanced courses such as Biophysics II and a selection of specialist electives. Depending on their interests, students can explore Introduction to Biochemistry I, Quantitative Physiology, Biophysical Chemistry, Modeling Biological Systems, or Fundamentals of Neuroscience, while also having opportunities to gain research experience.

Focus Areas

Biophysics, quantitative biology, molecular biology, genetics, cell biology, biochemistry, bioengineering, biomedical science, neuroscience, physiology, computational biology, mathematical modelling, experimental physics, and biological data analysis.

Learning Outcomes

Students develop the ability to use physics, mathematics, chemistry, and quantitative methods to understand biological systems and solve scientific problems. They gain experience in analysing biological processes, interpreting experimental results, applying computational and mathematical approaches, and connecting physical principles with biological and biomedical research.

Professional Alignment (Accreditation)

Duke University is institutionally accredited by the Southern Association of Colleges and Schools Commission on Colleges (SACSCOC). The B.S. in Biophysics is a science-based degree rather than a separately accredited engineering degree, with strong preparation for graduate study and careers in scientific research, biotechnology, biophysics, bioengineering, and related biomedical fields.

Reputation (Employability Rankings)

Duke University is internationally recognised as a leading research university and was ranked #62 in the QS World University Rankings 2026. Its strong research environment and the interdisciplinary nature of the Biophysics B.S. provide students with a solid foundation for further study and careers across biological, biomedical, computational, and physical sciences.

Experiential Learning (Research, Projects, Internships etc.)

The B.S. in Biophysics at Duke gives students plenty of opportunities to apply what they learn in class to real scientific research. Students can work with faculty across physics, biology, chemistry, biomedical engineering, neuroscience, and related areas, gaining hands-on experience with laboratory research, data analysis, programming, and biological experimentation. The program also encourages students to take part in independent research and summer research projects, helping them build practical skills that can support graduate study or careers in biotechnology, biophysics, biomedical research, and related fields.

Students can develop practical experience through:

Independent research: Students are strongly encouraged to complete a research independent study, allowing them to work on a biophysics-related research project under faculty guidance.
Faculty-led research: Students can connect with faculty research groups, attend laboratory meetings, and explore research opportunities across Duke's interdisciplinary biophysics community.
Summer research: Duke offers undergraduate research fellowships that support approximately 6–12 weeks of faculty-mentored summer research. Students may use their research experience to contribute to a senior thesis, research presentation, poster, or paper.
Laboratory training: Students gain hands-on laboratory experience through courses such as PHYSICS 164L, PHYSICS 165L, and PHYSICS 364L, developing practical skills alongside their theoretical studies.
Programming and data analysis: Students are encouraged to develop programming skills through courses such as COMPSCI 101L or Engineering 53L. These skills can be applied to analysing biological data and supporting experimental work.
French Family Science Center: The centre provides research and teaching laboratories covering areas such as genomics, biological chemistry, physical biology, and bioinformatics, giving biophysics students access to a strong interdisciplinary research environment.
Duke Free Electron Laser Laboratory: The facility includes the Keck Life Sciences Research Laboratory, supporting research in biological and biomedical sciences and providing opportunities to engage with advanced scientific research.
Interdisciplinary research opportunities: Students can explore research with faculty in Biology, Chemistry, Biomedical Engineering, Neuroscience, Computer Science, Mathematics, and the Medical School, allowing them to apply biophysics to a wide range of biological and medical questions.
Biophysics research groups: Duke Physics includes research groups working across areas such as molecular biophysics, biological physics, computational modelling, and experimental biophysics, giving students opportunities to explore different approaches to research.
Structural Biology and Biophysics: Students interested in proteins and other biological macromolecules can explore research opportunities through Duke's Structural Biology and Biophysics community, particularly in areas involving the relationship between molecular structure and biological function.

Progression & Future Opportunities

Duke’s B.S. in Biophysics gives students a strong foundation for careers and further study across the biological, biomedical, and physical sciences. By combining physics, biology, chemistry, mathematics, and computational skills, the degree can prepare students for research-focused roles as well as advanced study in areas such as biophysics, biotechnology, bioengineering, computational biology, and medical science.

Typical career directions include:

Biophysics Researcher
Biomedical Researcher
Computational Biology or Bioinformatics Researcher
Biotechnology Research Professional

Students can strengthen their career preparation through Duke’s academic, research, and professional opportunities:

Undergraduate research: Students can undertake independent research and work with faculty across Physics, Biology, Chemistry, Biomedical Engineering, Computer Science, Mathematics, Neuroscience, and the Medical School. This gives students practical research experience and the opportunity to explore areas that match their career interests.
Summer research opportunities: Duke offers undergraduate research fellowships that support approximately 6–12 weeks of faculty-mentored summer research. Research projects can contribute to a senior thesis, research paper, poster, or presentation and can be valuable when applying for graduate or professional programs.
Research facilities and laboratories: Students can gain exposure to Duke’s wider research environment through facilities and research groups working in areas such as biological physics, biomedical science, bioinformatics, molecular biology, and related fields.
Quantitative and computational preparation: The program encourages students to develop programming and statistics skills, which are increasingly important for analysing biological data, modelling biological systems, and supporting experimental research.
Employment and salary information: Duke provides access to physics career resources and employment information through professional organisations. However, Duke does not publish a specific employment rate or average salary for graduates of the B.S. in Biophysics, so a program-specific salary figure should not be assumed.
Industry relevance: The interdisciplinary training is relevant to research and professional environments in biotechnology, biomedical science, bioengineering, computational biology, medical physics, molecular biology, neuroscience, and physiology.
Long-term value: The combination of laboratory experience, quantitative skills, interdisciplinary coursework, and research opportunities can strengthen applications for graduate school, professional schools, and research-oriented employment.
Graduation outcomes: Graduates can pursue opportunities in scientific research and biotechnology or continue into advanced study. The degree can also support students considering professional health pathways such as medicine, veterinary medicine, or dentistry.

Further Academic Progression: After completing the B.S. in Biophysics, students can continue to master’s or doctoral programs in fields such as biophysics, biology, biochemistry, bioengineering, computational biology, neuroscience, physiology, and biomedical sciences. Students interested in research-intensive careers may pursue a Ph.D., while those interested in healthcare can use the degree as preparation for professional programs such as medicine or an MD/PhD pathway.