University of Michigan

What you'll study

The programme provides a rigorous foundation in chemistry, physics and mathematics alongside in‑depth study of molecular and cellular biology. Core topics typically include general and organic chemistry, physical chemistry principles as applied to biological systems, introductory and advanced molecular biology, cell biology, genetics and enzymology.

Students take laboratory courses emphasizing experimental design, quantitative measurement and data analysis, and are trained in modern techniques such as protein purification, molecular cloning, microscopy and spectroscopy. Coursework commonly covers biophysics topics (thermodynamics, kinetics, structural biology), bioinformatics and statistical methods for biological data.

Beyond required cores, the curriculum allows elective specialisation through courses in areas such as structural biology, neuroscience, developmental biology, computational biology and systems biology. Many students undertake a capstone research project or thesis and participate in faculty‑led laboratories, independent study placements or collaborative interdisciplinary projects with centers such as the Life Sciences Institute and Michigan Medicine research groups.

Entry requirements

Admission to the University of Michigan is competitive. Successful applicants typically present a strong secondary‑school record with substantial preparation in the sciences and mathematics — for example, coursework in biology, chemistry and physics and high‑level mathematics. Advanced courses (AP, IB, A‑level or equivalent) in calculus, biology and chemistry are advantageous.

Admissions decisions are based on the whole application: academic achievement, the rigor of courses taken, letters of recommendation, and personal essays that demonstrate motivation for the field. Relevant extracurricular experience, such as laboratory internships, science clubs or research projects, strengthens an application. Transfer applicants commonly need to show college coursework in introductory biology and chemistry and maintain strong collegiate grades.

Career prospects

Graduates are well prepared for a wide range of career paths. Many move into research positions in academic laboratories, government research centres or the biotechnology and pharmaceutical industries. The degree also provides a strong foundation for advanced study, including medical school, dental school, or MSc/PhD programmes in molecular biology, biochemistry, biophysics, bioengineering or related disciplines.

Other career options include roles in clinical laboratory science, regulatory affairs, quality control, scientific publishing, patent law (with additional legal training), science policy, and data‑driven positions in bioinformatics and computational biology. The University of Michigan’s career services and industry links support internships and employer connections that help students transition into the workforce.

Why study at University of Michigan

The University of Michigan offers a research‑intensive environment with access to extensive laboratory facilities, interdisciplinary centres and clinical partnerships that enrich undergraduate learning. Faculty are active researchers across the molecular life sciences and frequently involve undergraduates in publishable research and multi‑disciplinary projects.

Undergraduate students benefit from structured research opportunities, mentorship programmes, and a broad elective curriculum that encourages cross‑training in computation, engineering and quantitative methods. Dedicated support services — including advising, career development and entrepreneurship resources — help students tailor the degree to their professional goals while gaining hands‑on experience in one of the country’s leading research universities.