Emory University

What you'll study

Coursework combines core disciplinary modules with electives that explore the interface of biology and physics. Typical topics include:

• Fundamentals of Biology: cell and molecular biology, genetics, physiology and ecology.
• Core Physics: mechanics, electromagnetism, thermodynamics and modern physics.
• Quantitative and Computational Methods: calculus, linear algebra, statistics, mathematical modelling and scientific computing.
• Physical Chemistry and Biophysics: chemical thermodynamics, physical chemistry principles and applications to biological systems.
• Laboratory and Instrumentation Skills: experimental design, data analysis, microscopy, spectroscopy and laboratory safety.
• Interdisciplinary and Applied Modules: systems biology, biomechanics, neural physics, imaging techniques and quantitative genomics.

Students typically complete foundational liberal arts requirements alongside major courses, undertake semester‑long laboratory courses, and have opportunities to take advanced electives in both the Department of Biology and the Department of Physics. A substantial research component — such as a senior thesis, independent project or summer research placement with faculty — is commonly available and encouraged.

Entry requirements

Applicants should hold a secondary school diploma or equivalent with a strong academic record, particularly in science and mathematics. Successful candidates will have taken courses in biology, chemistry and mathematics (calculus is strongly recommended). Emory’s undergraduate admissions consider the whole application, including academic transcripts, a personal statement, and letters of recommendation; standardised test submission policies may vary, so applicants should consult the university’s admissions guidance for current requirements. Relevant extracurriculars — such as laboratory experience, science clubs or research internships — strengthen an application.

Career prospects

Graduates leave equipped for a variety of careers and further study. Common paths include:

• Graduate research (PhD) in biophysics, biochemistry, physics or interdisciplinary STEM fields.
• Health‑related professions (medicine, dentistry, allied health), often following additional professional training.
• Industry roles in biotechnology, pharmaceuticals, medical devices, instrumentation and diagnostics.
• Data science, quantitative analysis and modelling positions that value strong mathematical and computational skills.
• Science communication, policy, education and laboratory technical roles.

Emory’s emphasis on undergraduate research and its connections with nearby research institutions and hospitals support transition into both academic and applied careers.

Why study at Emory University

Emory offers a liberal arts environment with access to robust research infrastructure and experienced faculty across biology and physics. Undergraduate students benefit from small seminar‑style classes, opportunities for one‑to‑one mentorship, and multiple avenues for hands‑on research — on campus and through partnerships with regional research and healthcare organisations. The university’s cross‑disciplinary culture makes it well suited for students seeking training at the intersection of life and physical sciences.