University of Michigan

What you'll study

This Master's programme focuses on the genetics, cell biology and systems-level regulation of mitochondria, integrating experimental and computational approaches. Core topics typically include mitochondrial structure and function, mitochondrial DNA biology, mechanisms of mitochondrial inheritance, mitochondrial bioenergetics and signalling, and the role of mitochondria in ageing and disease.

• Core modules: mitochondrial genetics and genomics; advanced molecular genetics; cell biology of organelles; experimental design and statistics for genetics.
• Technical and computational modules: next-generation sequencing applications to mitochondrial DNA, variant interpretation, mitochondrial genome assembly, and bioinformatics for population and functional genomics.
• Applied and clinical modules: mitochondrial disease mechanisms, diagnostic approaches, therapeutic strategies, and translational research methods.
• Laboratory training: hands-on training in molecular biology techniques (PCR, long-range PCR for mtDNA, CRISPR applications where applicable, respiration assays, high-resolution respirometry), microscopy and biochemical assays of mitochondrial function.
• Research project / thesis: an independent research dissertation undertaken in a faculty laboratory; students work on a focused mitochondrial genetics question under supervision and present their findings in a written thesis and oral examination.
• Electives and seminars: students may take electives in population genetics, proteomics, metabolomics, or clinical genetics, and participate in journal clubs and departmental seminars to place their research in a broader context.

Entry requirements

Applicants are normally expected to hold a relevant undergraduate degree (for example in genetics, molecular biology, biochemistry, biomedical sciences or a closely related discipline) with strong preparation in genetics and laboratory methods. Typical application components include academic transcripts, a personal statement describing research interests and experience, and two or three academic references.

• Academic background: a bachelor’s degree with coursework in genetics, cell biology, molecular biology and biochemistry.
• Laboratory experience: prior practical laboratory experience is strongly recommended and can be demonstrated through lab-based courses, undergraduate research projects or employment.
• Technical skills: familiarity with basic molecular techniques and some experience with data analysis or programming (for example R or Python) is advantageous.
• Other requirements: proof of English language proficiency where applicable and any departmental statements or interviews required as part of the assessment. The programme may consider applicants with relevant professional experience even if their academic background is non-traditional.

Career prospects

Graduates from this programme leave with a combination of experimental and analytical skills directly relevant to mitochondrial genetics and genomics. Common career paths include roles in academic research groups, clinical and diagnostic laboratories, biotechnology and pharmaceutical companies, and public health or regulatory agencies.

• Research and academia: progression to PhD programmes or positions as research associates and technicians in mitochondrial biology, genetics and cell biology laboratories.
• Clinical and diagnostic laboratories: roles in genetic testing labs focusing on mitochondrial DNA diagnostics and variant interpretation (additional certification may be required for clinical practice in some jurisdictions).
• Biotech and pharmaceutical industry: positions in drug discovery, biomarker development, genomic services and companies developing therapies for mitochondrial and metabolic diseases.
• Data-focused roles: bioinformatics and genomic data analysis roles that support mitochondrial and mitochondrial-related projects.
• Science policy, communication and allied professions: opportunities in science communication, regulatory affairs and research management where knowledge of mitochondrial genetics is relevant.

Why study at University of Michigan

The University of Michigan provides a research-intensive environment with broad expertise in genetics, cell biology and translational medicine. Students benefit from interdisciplinary collaboration across departments and close links with the clinical and research resources of Michigan Medicine, enabling access to patient cohorts, diagnostic platforms and translational research pipelines.

• Research environment: access to faculty working on mitochondrial function, disease mechanisms and therapeutic development, and to core facilities for sequencing, microscopy and high-throughput assays.
• Training and mentorship: structured supervision and opportunities for collaboration with clinicians, bioinformaticians and basic scientists to support translational projects.
• Facilities and resources: state-of-the-art laboratories, sequencing and imaging cores, and a vibrant seminar programme that keeps students connected to the latest developments in mitochondrial research.
• Career support: career development services, networking opportunities with industry partners and support for students pursuing further research degrees or professional careers.