Dartmouth College

What you'll study

This interdisciplinary master's emphasises the quantitative and experimental foundations that link physics, chemistry and biology. Core coursework typically covers physical chemistry and thermodynamics, statistical and computational methods for biological systems, molecular and cellular biology, and advanced laboratory techniques. Students study subjects such as biophysics, structural biology, spectroscopy and imaging, systems biology and mathematical modelling of biological processes.

The programme is research-led: students undertake supervised laboratory rotations or a research practicum to gain hands-on experience with contemporary instrumentation and experimental design. A substantial independent research project or master's thesis is normally required, supported by seminars on research ethics, experimental reproducibility and scientific communication. Elective options allow deeper focus on areas such as single-molecule methods, computational biophysics, chemical biology or bioinformatics.

Entry requirements

Applicants are expected to hold a recognised bachelor's degree in a relevant discipline (for example physics, chemistry, biochemistry, molecular biology, engineering or a closely related field) with evidence of strong quantitative training. Typical supporting materials include official academic transcripts, a statement of purpose outlining research interests, two or three academic or professional references, and a CV or résumé.

Some applicants may be invited to discuss their background and research goals with potential supervisors. Where the primary language of instruction was not English, proof of English language proficiency is usually required. Applicants with gaps in specific prerequisites may be admitted with recommended preparatory coursework or bridging modules.

Career prospects

Graduates leave prepared for a range of careers in academic research, industry and beyond. Common pathways include research scientist or technologist roles in biotechnology and pharmaceutical companies, positions in materials or nanotechnology firms that apply physical-science approaches to biological problems, and technical roles in instrumentation and imaging companies. The programme also provides a strong foundation for students who wish to progress to PhD programmes in biophysics, molecular biology, chemistry or related fields.

Other career directions include scientific consulting, regulatory affairs, patent and intellectual property roles for those combining the degree with additional training, and careers in data science and computational biology where the programme’s quantitative emphasis is valued.

Why study at Dartmouth College

Dartmouth offers a distinctive environment for this interdisciplinary training: small cohort sizes and a low student-to-faculty ratio mean close mentorship and frequent interaction with faculty. The college combines liberal-arts breadth with access to modern research facilities, enabling students to pursue collaborative projects across chemistry, physics, biological sciences and engineering.

Students benefit from Dartmouth’s connections with regional research hospitals, centres and industry partners, which can support internships and translational projects. The programme’s emphasis on hands-on research, communication and professional development prepares graduates to move directly into research roles or to continue to doctoral study with a competitive and well-rounded skill set.