Dartmouth College

What you'll study

The programme combines advanced coursework, hands‑on laboratory research and interdisciplinary training in topics relevant to mitochondrial genetics. Early in the programme students typically complete core graduate courses in advanced genetics, molecular and cellular biology, and genomic technologies, together with specialised classes in mitochondrial biology, bioenergetics, and mitochondrial pathology.

Typical components include:

• Laboratory rotations to identify a thesis laboratory and gain exposure to diverse experimental systems and techniques (e.g. mitochondrial isolation, high‑resolution respirometry, CRISPR/Cas genome editing, single‑cell sequencing).
• Coursework in statistical genetics, population genetics, functional genomics, and computational methods for analysis of next‑generation sequencing data.
• Journal clubs, seminar series and grant‑writing workshops to develop critical reading and communication skills.
• A qualifying examination or proposal defence to transition to candidacy, followed by independent dissertation research focused on an original question in mitochondrial genetics.
• Opportunities for teaching or mentoring undergraduates and for cross‑disciplinary collaboration with faculty across molecular biology, bioinformatics and clinical departments.

Entry requirements

Applicants are normally expected to hold a bachelor’s degree in biology, biochemistry, molecular biology, genetics, or a closely related discipline; many successful applicants also hold a master’s degree or equivalent research experience. Strong laboratory experience, demonstrated by research projects, publications or glowing references, is essential for a research‑intensive programme focused on mitochondrial genetics.

Typical application components include an academic transcript, a CV, a personal statement describing research interests and fit with potential faculty mentors, and three letters of recommendation from research supervisors or academic referees. Prior coursework in genetics, molecular biology and biochemistry is important, and familiarity with computational or statistical methods is advantageous. Dartmouth’s graduate admissions processes may include interviews with faculty as part of the evaluation.

Career prospects

Graduates of a PhD in Genetics with a focus on mitochondrial genetics pursue a range of careers. Many move into academic research and teaching, undertaking postdoctoral positions in mitochondrial biology, cell biology or genomics before establishing independent labs. Others find roles in the biotechnology and pharmaceutical industries, including positions in genetic diagnostics, therapeutic development, drug discovery, and translational research.

Additional career pathways include clinical laboratory science and genetic counselling (often in combination with further clinical training), bioinformatics and computational biology roles, policy and science communication, and positions in government or non‑profit research organisations. The programme’s emphasis on both wet‑lab and computational skills prepares graduates for interdisciplinary roles where understanding of mitochondrial function and genetics is valuable.

Why study at Dartmouth College

Dartmouth offers a small, closely connected graduate environment that emphasises close mentorship and interdisciplinary collaboration. Graduate students benefit from direct access to faculty across molecular and cell biology, opportunities to collaborate with clinicians and translational researchers, and support from campus core facilities for genomics, imaging and proteomics.

The College’s campus and research community foster one‑to‑one mentorship, frequent seminar interactions and the ability to develop bespoke research programmes in mitochondrial genetics. In addition to research training, Dartmouth provides professional development resources, teaching experience, and connections to regional biomedical partners to support career development in both academic and non‑academic sectors.