Michigan State University

What you'll study

The programme builds from foundational courses in general biology, chemistry and calculus into a genetics curriculum emphasising molecular mechanisms, genomic analysis and mitochondrial function. Students take a core sequence in classical and molecular genetics alongside courses in cell biology, biochemistry and molecular biology, then choose advanced electives that focus on mitochondrial genetics, such as mitochondrial genome biology, oxidative phosphorylation, mitophagy and mitochondrial-nuclear interactions.

• Core modules: Mendelian and molecular genetics, cell biology, biochemistry, introductory genomics and laboratory methods.
• Mitochondria-focused modules: mitochondrial DNA and inheritance, mitochondrial physiology and bioenergetics, mitochondrial disease mechanisms, and laboratory techniques for studying mitochondrial function.
• Quantitative and computational modules: biostatistics, bioinformatics, sequence analysis, and computational genomics applied to mitochondrial and nuclear genome data.
• Laboratory and research experience: multi-semester laboratory courses, course-based undergraduate research experiences (CUREs) and the option to undertake independent research with faculty working on mitochondrial biology, often culminating in a senior thesis or capstone project.
• Breadth requirements: general education courses across the arts, humanities and social sciences to ensure a well-rounded undergraduate education.

Entry requirements

Admission to Michigan State University is competitive. Applicants for the Genetics programme are expected to have a strong secondary-school record with solid preparation in biology and chemistry. Successful applicants typically present coursework in biology, chemistry and mathematics; experience with laboratory classes or research is advantageous.

• Competitive academic record in high school; completion of science and maths prerequisites (biology and chemistry strongly recommended).
• Applicants who have taken advanced programmes (A-levels, IB higher level, AP courses) in biology, chemistry, and maths demonstrate readiness for the major.
• Standardised tests: Michigan State’s admission policies evolve; check the university for current test-score requirements or optional policies.
• International applicants must meet English language proficiency requirements (for example through recognised tests) and demonstrate equivalent academic preparation.
• Transfer applicants should have completed introductory college-level biology and chemistry with laboratory components; prior research or coursework in genetics or molecular biology strengthens an application.

Career prospects

Graduates with a genetics degree focused on mitochondrial genetics enter a wide variety of careers. Many continue into graduate or professional training; others move directly into technical or applied roles.

• Research and graduate study: laboratory technician roles, research assistant positions, and progression to MSc/PhD programmes in genetics, molecular biology, mitochondrial biology or related fields.
• Clinical and healthcare careers: with additional training or certification, graduates may work in clinical laboratories, participate in diagnostic genomics or pursue training to become genetic counsellors or clinicians.
• Biotechnology and pharmaceutical industry: roles in drug discovery, assay development, quality control and mitochondrial-targeted therapeutics.
• Bioinformatics and data science: positions analysing genomic and mitochondrial sequence data, population-level studies and computational biology roles.
• Science policy, education and communication: roles translating mitochondrial and genetic research for policy, public health, outreach or media.

Why study at Michigan State University

Michigan State University offers a well-established life-sciences environment within the College of Natural Science, with faculty conducting active research in mitochondrial biology, genomics and disease. Undergraduate students can access core facilities for genomics, microscopy and metabolomics, and opportunities to join faculty labs for hands-on research from early in their degree.

• Strong undergraduate research culture and structured programmes that place students in faculty laboratories and course-based research experiences.
• Interdisciplinary training linking genetics, biochemistry and computational approaches—important for understanding mitochondrial genetics from molecule to organism.
• Access to seminars, symposia and departmental networks that connect students with graduate programmes, clinical partners and industry employers.
• Support services including academic advising, career counselling and internship placement that help transition graduates into further study or the workforce.