Brandeis University

What you'll study

The PhD programme combines intensive coursework, laboratory rotations and long‑term dissertation research to train students in modern molecular life sciences. Early years emphasise core concepts in molecular biology, biochemistry and biophysics alongside quantitative methods, followed by specialised electives and research projects.

• Core coursework: advanced molecular biology, enzymology and metabolism, structural biology, biophysical methods, and statistical/quantitative approaches for biological data.
• Laboratory rotations: multiple short rotations provide hands‑on experience with different research groups so students can select a dissertation lab that matches their interests in areas such as protein structure and dynamics, nucleic acid biology, membrane biophysics, single‑molecule techniques, or quantitative cell biology.
• Technical training: exposure to contemporary experimental platforms including X‑ray crystallography, cryo‑EM, NMR spectroscopy, advanced fluorescence microscopy and single‑molecule techniques, mass spectrometry, and computational/structural modelling.
• Seminars and journal clubs: regular departmental seminars, student journal clubs and research-in-progress meetings foster critical reading of literature and presentation skills.
• Qualifying examination and dissertation: after completing core requirements, students undertake a qualifying exam to advance to candidacy and then focus on an original research dissertation under faculty supervision.
• Professional development: teaching opportunities, grant writing workshops, and career development programmes prepare students for academic and non‑academic career paths.

Entry requirements

Applicants are normally expected to hold a strong bachelor’s degree in biology, chemistry, biochemistry, physics, bioengineering or a closely related discipline. A prior research record—such as undergraduate or master’s research experience—is highly desirable. Admissions decisions are based on overall academic preparation, research experience and the fit between applicant interests and faculty expertise.

• Academic transcripts: evidence of strong performance in relevant coursework (molecular biology, physical chemistry, calculus or statistics where applicable).
• Research experience: documented laboratory research is important; descriptions of projects and outcomes in the personal statement and CV strengthen applications.
• References: letters from instructors or research supervisors who can evaluate research potential and independence.
• Application materials: personal statement outlining research interests and goals, CV, and any relevant publications or preprints.
• International applicants: proof of English proficiency may be required where applicable; additional documentation such as credential evaluations can be requested.
• Funding and support: admitted PhD students are typically supported through research assistantships, teaching assistantships or fellowships; specific funding arrangements are provided with offers.

Career prospects

Graduates of the programme are well placed for a range of careers that require deep molecular and quantitative knowledge. Typical paths include:

• Academic research and teaching: postdoctoral fellowships leading to faculty positions in universities and research institutes.
• Biotechnology and pharmaceutical industry: roles in discovery research, structural biology, assay development, process development and translational science.
• Computational biology and bioinformatics: positions applying quantitative and computational skills to genomic, proteomic and imaging data.
• Government and non‑profit research: research scientist positions in public research laboratories and policy or programme roles in science organisations.
• Other careers: science communication, regulatory science, patent law (with additional training), and research management.

Why study at Brandeis University

Brandeis offers a close‑knit graduate environment with strong interdisciplinary connections across biology, chemistry and physics, enabling collaborative projects at the interface of molecular and quantitative science. The Division of Science hosts faculty whose research spans structural biology, chemical biology, cell signalling and quantitative systems biology, providing diverse thesis opportunities.

• Research infrastructure: access to shared core facilities for microscopy, structural methods, mass spectrometry and computational resources supports cutting‑edge experiments.
• Collaborative environment: proximity to a major biotech and academic hub provides opportunities for collaboration, internships and informal interactions with neighbouring research institutions and industry partners.
• Mentoring and training: faculty mentorship, teaching experiences and structured professional development help students build both scientific and transferable skills.
• Community and scale: a graduate cohort size that facilitates close mentoring while offering a breadth of expertise across labs and disciplines.