University of Michigan

What you'll study

This master’s integrates core topics in microbiology and immunology with hands-on laboratory training and research. Teaching combines coursework, laboratory rotations and a supervised research project or thesis, allowing students to develop experimental skills and data analysis competence.

• Core subjects: microbial physiology and genetics, fundamental immunology, host–pathogen interactions, microbial ecology and evolution.
• Laboratory and methods training: molecular cloning, recombinant DNA techniques, cell culture, flow cytometry, microscopy, next-generation sequencing workflows, and bioinformatics for microbial and immunological datasets.
• Advanced topics and electives: vaccine immunology, microbial pathogenesis, innate immunity and inflammation, microbial genomics, synthetic biology, antimicrobial resistance and translational immunotherapy.
• Research project / thesis: an independent laboratory research project under faculty supervision, culminating in a written thesis and oral presentation. Projects are available in basic, translational and applied research settings across campus-affiliated laboratories and clinical partner sites.
• Professional skills: scientific communication, experimental design, statistical analysis, responsible conduct of research and grant-writing workshops are embedded to prepare students for research careers.

Programme structure

Students typically complete a combination of taught modules and a substantial research component over the course of the degree. There is flexibility to pursue a thesis-based route focused on original research or a coursework route with a practicum, depending on academic and career goals.

Entry requirements

Applicants are expected to hold a recognised bachelor’s degree in biological sciences, microbiology, biochemistry, immunology, or a closely related discipline. Strong laboratory experience and coursework in molecular biology, genetics and cell biology are highly desirable.

• Academic record: a solid undergraduate academic record; selection is competitive.
• Laboratory experience: documented research or laboratory coursework experience is important—this can include final-year projects, internships or employment in research labs.
• Supporting documents: a personal statement outlining research interests and career aims, curriculum vitae, and at least two academic or professional references.
• Standardised tests: requirements for tests such as the GRE vary; international applicants should check specific departmental guidance for English-language proficiency evidence.
• Interview: shortlisted candidates may be invited to interview with faculty to discuss research fit and preparedness for graduate study.

Career prospects

Graduates progress to a range of scientific and professional roles. The programme equips students for bench-level and research positions, clinical laboratory work, and further postgraduate study.

• Research and academia: PhD programmes, postdoctoral roles and university research positions in microbiology, immunology and related fields.
• Industry and biotech: research scientist, assay development, quality control, regulatory affairs and product development roles in biotechnology and pharmaceutical companies.
• Clinical and diagnostic labs: positions in hospital or commercial clinical laboratories performing microbiological and immunological testing.
• Public health and policy: roles in infectious disease surveillance, outbreak response, vaccine programmes and science policy.
• Other pathways: science communication, patent and regulatory consulting, and roles in non-profit organisations and global health initiatives.

Why study at University of Michigan

The University of Michigan offers a research-intensive environment with access to world-class faculty across the Medical School, life sciences departments and interdisciplinary institutes. Students benefit from extensive laboratory facilities, core technology platforms (for genomics, imaging and flow cytometry) and collaborative research groups working on basic and translational problems in microbiology and immunity.

• Interdisciplinary opportunities: strong links between basic science, clinical departments and public health enable translational projects and exposure to clinical research settings.
• Mentorship and supervision: students work with faculty investigators active in microbial pathogenesis, host immune responses, vaccinology and microbial ecology.
• Professional development: career development resources, workshops and seminars help students build transferable skills for academic and non-academic careers.
• Location and ecosystem: a vibrant campus and connections with regional biotech and healthcare organisations provide internships, collaborations and employment prospects.