Biophysics, Bachelor of Science

4 Years On Campus Bachelors Program

Johns Hopkins University

Program Overview

The Biophysics, Bachelor of Science at Johns Hopkins University brings together biology, chemistry, physics, mathematics, and computing to help students understand how biological systems work at the molecular and cellular level. It is a strong choice for students interested in biophysics, biotechnology, medicine, pharmaceuticals, computational biology, or scientific research, while also providing a solid foundation for graduate and professional study.

Curriculum Structure

First Year: Students begin by building a strong foundation in the sciences through Introductory Chemistry I and II, Calculus I and II, and Introduction to Computing. Laboratory courses in introductory chemistry also give students early practical experience and help them develop the quantitative and technical skills needed for biophysics.

Second Year: Students progress into more advanced scientific concepts through Introductory Organic Chemistry I and II, Calculus III, and General Physics/Biology Majors II. General Physics Laboratory I and II further develop their ability to apply scientific principles through hands-on experimentation and analysis.

Third Year: Students move deeper into biophysics with courses such as Biochemistry I, Biophysical Chemistry, and Spectroscopy and Its Application in Biophysical Reactions. Introduction to Biophysics Research gives students the opportunity to apply their knowledge to scientific research and gain experience investigating real biophysical questions.

Fourth Year: The final year focuses on advanced biophysics and research, including Molecular Biophysics Laboratory and specialized electives such as Mathematical Methods for Biophysics, Modeling the Living Cell, Protein Engineering and Biochemistry Lab, and Biophysical Techniques and Their Applications. These courses allow students to develop deeper expertise in experimental, computational, and quantitative approaches to biological systems.

Focus Areas

Experimental and computational biophysics, molecular biophysics, cellular biophysics, biophysical chemistry, structural biology, protein engineering, computational biology, quantitative biology, spectroscopy, molecular biology, biochemistry, biological physics

Learning Outcomes

Students develop a strong interdisciplinary understanding of biology, chemistry, physics, mathematics, and computing; gain practical laboratory and research experience; learn to use quantitative and physical approaches to study biological systems; strengthen scientific analysis and problem-solving skills; and prepare for careers or further study in biophysics, biotechnology, pharmaceuticals, biomedical research, medicine, and related fields.

Professional Alignment (Accreditation)

The official Johns Hopkins University catalogue does not list a separate professional accreditation for the Biophysics B.S. The program is designed around rigorous interdisciplinary science education, laboratory training, and research experience, providing preparation for graduate and professional education as well as opportunities in biotechnology, pharmaceuticals, and scientific research.

Reputation (Employability Rankings)

Johns Hopkins University has a strong international reputation for science, medicine, research, and innovation. The university has been highly ranked in major global and U.S. university rankings, while its strong research environment and connections across the Johns Hopkins academic and medical community provide students with valuable opportunities to develop skills relevant to further study and scientific careers.

Experiential Learning (Research, Projects, Internships etc.)

The Biophysics B.S. at Johns Hopkins University gives students the opportunity to develop practical scientific skills through laboratory-based courses and hands-on research. Students work with advanced experimental techniques, computational tools, and specialized research facilities, while independent research allows them to work closely with faculty and explore real scientific questions. These experiences help students build confidence in experimentation, data analysis, computational work, scientific writing, and research communication.

Students can gain practical experience through:

Molecular Biophysics Laboratory: Students work with techniques such as chromatography, UV-Vis and fluorescence spectroscopy, circular dichroism, NMR, calorimetry, analytical centrifugation, X-ray crystallography, and mass spectrometry to study biological molecules.
Independent Biophysics Research: Through Introduction to Biophysics Research and Research in Biophysics, students can work directly with research supervisors in active laboratories and gain experience conducting scientific investigations.
Cross-disciplinary research opportunities: Students can pursue research in laboratories across Johns Hopkins, including the Schools of Arts and Sciences, Medicine, Engineering, and Public Health.
Computational tools: Students develop computational skills using programming environments such as UNIX and Python, as well as tools including Mathematica and MATLAB for analysis, modelling, simulation, and quantitative research.
Advanced research facilities: Students can benefit from specialized resources including X-ray crystallography facilities, high-field NMR spectrometers, microcalorimetry laboratories, fluorescence and circular dichroism spectrophotometers, EPR, mass spectrometry, and analytical ultracentrifugation.
Specialized research centres: The program is supported by facilities and centres including the Center for Molecular Biophysics, Johns Hopkins Biomolecular NMR Center, Integrated Imaging Center, Mass Spectrometry Facility, and NMR Core Facility.
Advanced computing facilities: Students involved in research can use departmental computing resources to support computational approaches to biophysical research.
Summer research experience: The JHU BioREU offers a 10-week mentored summer research opportunity, allowing undergraduate students to work in research laboratories under faculty supervision.
Research communication: Students develop scientific communication skills through research activities, including writing and presenting their research findings and participating in opportunities such as DREAMS, which showcases undergraduate research and scholarly projects.

Progression & Future Opportunities

The Biophysics B.S. at Johns Hopkins University gives students a strong foundation for careers and further study in biomedical research, biotechnology, pharmaceuticals, medicine, and related scientific fields. The program’s combination of laboratory training, quantitative skills, computing, and research experience can prepare graduates for both professional roles and competitive graduate or professional programs.

Typical career roles include: Biophysics Researcher, Biomedical Research Scientist, Biotechnology Researcher, Pharmaceutical R&D Scientist

Students can strengthen their career prospects through:

Life Design Lab: Johns Hopkins’ Life Design Lab provides undergraduate students with personalized career guidance, connections with employers and alumni, networking opportunities, professional-readiness workshops, internship and research opportunities, and support with applications and career planning.
Internship opportunities: Johns Hopkins reports that 98% of students have pre-professional experience. The university connects students with internship opportunities and provides resources such as networking events, résumé workshops, and mock interviews. Employers including Amazon, Google, Microsoft, NBCUniversal, and Malala Fund routinely seek Hopkins students.
Research experience: Biophysics students can gain research experience through faculty-supervised projects and opportunities across Johns Hopkins, helping them develop practical skills that are valuable for scientific and research-focused careers.
Career preparation: Students can use services such as Handshake, Life Design Educators, employer events, alumni connections, résumé support, interview preparation, and career coaching to prepare for internships, employment, and further study.
Employment and salary figures: Johns Hopkins does not publish a specific employment rate or average salary for graduates of the Biophysics B.S. Therefore, program-specific salary or employment figures should not be assumed from broader university statistics.
Industry connections: The university's career services connect students with employers through networking and recruiting activities, while the Biophysics program identifies biotechnology and pharmaceutical research and development among the professional areas relevant to its graduates.
Long-term value: The official program information does not list a separate professional accreditation for the Biophysics B.S. However, its interdisciplinary training in biology, chemistry, physics, mathematics, computing, laboratory techniques, and research provides a strong foundation for long-term scientific and professional development.
Graduation outcomes: Graduates can move into scientific and research-oriented roles or continue their education in areas such as medicine, biophysics, biomedical sciences, biotechnology, pharmaceuticals, and related fields. Johns Hopkins also reports that nearly 40% of its undergraduate students pursue graduate or professional education after earning their bachelor's degree.

Further Academic Progression: After completing the Biophysics B.S., students can pursue medical school, Ph.D. programs, MD/PhD programs, or master's and doctoral degrees in areas such as biophysics, biophysical chemistry, molecular biology, cell biology, neuroscience, physiology, biomedical sciences, public health, and related life and physical sciences. Students interested in research-intensive careers can also use their undergraduate research experience as a foundation for advanced study and specialized scientific training.