Michigan State University

What you'll study

The programme combines advanced coursework, laboratory rotations, and an independent dissertation centred on mitochondrial genetics. Core subject areas include mitochondrial DNA biology and inheritance, mitochondrial biogenesis and dynamics, bioenergetics and metabolism, mitochondrial-nuclear interactions, and the genetics of mitochondrial diseases. Students also develop expertise in contemporary experimental approaches such as high-throughput sequencing, single-cell genomics, mitochondrial genome editing (including CRISPR-based approaches where applicable), live-cell and super-resolution imaging, proteomics, metabolomics and functional assays of respiration and energetics.

Typical structure begins with coursework and short-term rotations in different laboratories to identify an advisor and dissertation project. Coursework covers advanced genetics, molecular biology techniques, statistics for genomics, and specialised seminars on mitochondrial function and disease mechanisms. After passing qualifying examinations, students focus on independent research, presenting findings in departmental seminars and contributing to publications. Training emphasises experimental design, grant writing, scientific communication and ethics in biomedical research.

• Laboratory rotations to gain hands-on experience in diverse mitochondrial research approaches
• Advanced seminars and journal clubs focusing on current mitochondrial genetics literature
• Methodological training in genomics, imaging, bioinformatics and biochemical assays of mitochondrial function
• Qualifying examinations and a dissertation based on original research
• Opportunities for collaborative, interdisciplinary projects with clinical or translational components

Entry requirements

Applicants are expected to hold a relevant graduate degree (such as an MS/MSc) or a strong undergraduate degree in genetics, molecular biology, biochemistry, cell biology or a closely related field, with substantial laboratory experience. Candidates should demonstrate a solid foundation in genetics and molecular techniques and provide evidence of research potential, typically through a research thesis, publications, or detailed descriptions of laboratory projects.

Application materials usually include academic transcripts, letters of recommendation (including at least one that can speak to research ability), a statement of research interests that aligns with mitochondrial genetics, and a curriculum vitae. International applicants must meet the university's English language proficiency requirements. Some applicants enter after completing rotations through a broader Genetics or Molecular Biology graduate programme; others apply directly to faculty working in mitochondrial research.

Career prospects

Graduates are prepared for careers in academic research, teaching, and leadership in biomedical science, including postdoctoral fellowships in mitochondrial physiology, genetics, or related fields. Career paths also include roles in the biotechnology and pharmaceutical industries focused on drug discovery, mitochondrial-targeted therapeutics, diagnostics and biomarker development, and in core facilities (genomics, imaging, proteomics). Other opportunities include scientific consulting, regulatory science, and positions in public health or clinical research related to mitochondrial disorders.

Doctoral training emphasises skills valued by employers: experimental design, quantitative analysis of high-dimensional data, grant and manuscript writing, project management and interdisciplinary collaboration, enabling graduates to transition into independent research or industry leadership roles.

Why study at Michigan State University

Michigan State University offers a collaborative research environment with faculty engaged in mitochondrial genetics across multiple departments and interdisciplinary centres. Students benefit from access to institutional core facilities for genomics, high-resolution imaging, metabolomics and bioinformatics, providing the technical resources required for cutting-edge mitochondrial research.

Graduate training at MSU emphasises mentorship through laboratory rotations and close faculty supervision, while also encouraging interdisciplinary collaboration with clinical researchers, plant and animal biologists, and computational scientists. The programme’s integration with broader genetics and molecular biology networks on campus creates opportunities for translational projects and industry partnerships. Finally, the department’s seminar series, journal clubs and professional development workshops support both scientific and career growth during doctoral training.