University of New Haven

What you'll study

The programme builds a strong foundation in classical and molecular genetics, cell and developmental biology, biochemistry and laboratory techniques, then advances into focused topics in mitochondrial biology. Early years cover core subjects such as Mendelian genetics, molecular genetics, cell structure and function, organic and biological chemistry, calculus/statistics for life sciences, and laboratory safety and methods. Later modules emphasise mitochondrial genetics, including mitochondrial DNA structure and inheritance, bioenergetics, mitochondrial replication and repair, mitophagy, mitochondrial-nuclear interactions, and the role of mitochondria in ageing and disease.

• Introductory and intermediate genetics
• Cell and molecular biology
• Biochemistry and metabolic pathways, including oxidative phosphorylation
• Laboratory techniques: PCR, gel electrophoresis, microscopy, DNA sequencing prep and basic bioinformatics
• Advanced mitochondrial genetics: mtDNA variation, heteroplasmy, mechanisms of inheritance and clinical implications
• Research methods, experimental design and statistics for biological research
• Capstone research project or honours thesis focused on a mitochondrial genetics question
• Electives such as population genetics, genomic medicine, bioinformatics, neuroscience or cellular pathology

Practical learning is emphasised through laboratory classes, supervised research in campus labs, and opportunities to collaborate with faculty on projects that may involve model organisms, cell culture, biochemical assays and computational analysis of sequence data.

Entry requirements

Applicants should hold a recognised secondary school qualification and demonstrate a strong academic record. Admissions typically look for prior study in biology and chemistry; courses in mathematics, physics or computer science are advantageous. Successful applicants often have A-levels (or equivalent) with biology and chemistry, or a mix of science subjects that shows quantitative and laboratory preparedness.

Other factors considered include personal statement, references, and relevant laboratory or research experience where available. International applicants must meet the university’s English language requirements and provide transcripts from previous institutions. Mature or transfer students are considered on an individual basis, with evaluation of prior college-level coursework.

Career prospects

Graduates with a major in genetics and specialist knowledge in mitochondrial genetics are well placed for a range of careers. Typical pathways include roles in biomedical and clinical laboratories, genetic counselling support roles (with further training), biotechnology and pharmaceutical industries, and research assistant positions in academic or commercial research labs. The degree also provides a strong foundation for postgraduate study (master’s or PhD) in genetics, molecular biology, biomedical sciences, or for professional healthcare programmes.

• Research technician or laboratory scientist in academic and industrial settings
• Biotech and pharmaceutical R&D roles focusing on molecular diagnostics and therapeutics
• Clinical laboratory work (with appropriate certification where required)
• Data- and bioinformatics-focused roles analysing genomic and mitochondrial sequence data
• Further study: graduate research degrees (MSc, PhD) or clinical training programmes

Why study at University of New Haven

The University of New Haven offers hands-on laboratory training and small class sizes that support close mentorship from faculty. Students benefit from a practical, career-oriented approach with access to campus research facilities and opportunities for undergraduate research projects. The university’s location provides connections to regional healthcare institutions, biotech employers and research centres, enabling internships and collaborative experiences that enhance employability.

Students in the programme also have access to interdisciplinary options—combining genetics with courses in bioinformatics, forensic science, or neuroscience—to tailor study towards specific career interests. A capstone research project allows students to develop independent research skills and build a portfolio of work useful for employment or postgraduate applications.