Eastern Mennonite University

What you'll study

This interdisciplinary degree integrates core topics in biochemistry, molecular biology and biophysics with a foundation in chemistry, physics and quantitative methods. Coursework emphasises experimental design, laboratory techniques and data analysis alongside conceptual understanding of molecular structure, cellular processes and biomolecular interactions.

• Core modules: General and organic chemistry, introductory and advanced molecular biology, biochemistry I & II, cell biology, genetics.
• Biophysics and quantitative skills: Physical chemistry concepts for biological systems, biophysical methods (spectroscopy, microscopy, electrophoresis), statistics and introductory calculus or mathematical modelling for biology.
• Laboratory and practical training: Hands-on labs in molecular cloning, protein purification and characterisation, enzyme kinetics, and instrumental techniques. Emphasis on lab safety, records and reproducible methods.
• Computational and modern methods: Introductory bioinformatics, sequence analysis, data visualisation and use of common laboratory software and databases.
• Capstone and research: Senior thesis or capstone project involving original experimental or computational research under faculty supervision, often culminating in a written report and oral presentation.
• Electives and interdisciplinary options: Courses in microbiology, neurobiology, environmental biology, ethics in science and science communication. Opportunities to take related mathematics, physics or computer science modules.

Entry requirements

Applicants should hold a recognised secondary school diploma or equivalent. Strong preparation in science and mathematics is expected. Typical successful applicants will have completed high-school biology and chemistry, and at least algebra; calculus and physics are advantageous.

• Academic profile: Competitive secondary-school grades with particular strength in science and mathematics courses.
• Prerequisites: High-school biology and chemistry recommended; previous laboratory experience is beneficial but not always required.
• Application materials: Transcripts, a personal statement outlining interest in molecular sciences and goals, and one or more academic or character references. Standardised test requirements may vary; consult the university for current policy.
• Additional considerations: Admissions may consider demonstrated laboratory or research experience, extracurricular science activities, and alignment with the university’s mission and community values.

Career prospects

Graduates are well prepared for a range of careers in the life sciences and related fields. Many continue to graduate study or professional programmes; others enter the workforce directly in laboratories, industry or education.

• Research and industry: Entry-level roles in biotechnology, pharmaceutical companies, clinical laboratories, and environmental testing.
• Further study: Preparation for MSc/PhD programmes in biochemistry, molecular biology, biophysics, biomedical sciences, and for professional degrees such as medicine, dentistry or pharmacy.
• Healthcare and clinical roles: Positions such as medical laboratory technologist or roles supporting clinical research and diagnostics (may require additional certification).
• Education and communication: Science teaching at secondary level (with appropriate certification) or careers in science communication, policy or outreach.

Why study at Eastern Mennonite University

Eastern Mennonite University offers a student-focused environment with small class sizes and close faculty mentorship, enabling extensive undergraduate research and personalised advising. The programme emphasises experiential learning—students gain substantial hands-on laboratory experience and are encouraged to pursue independent research projects with faculty guidance.

• Research opportunities: Access to campus laboratories and faculty-led projects allows students to develop practical skills and build a research portfolio useful for graduate applications or employment.
• Community and values: The university’s commitment to ethical engagement and community service provides a context for considering the societal impacts of scientific work.
• Internships and partnerships: Connections with regional healthcare providers, research institutions and industry partners support internships and real-world experience.
• Preparation for next steps: The curriculum balances theoretical foundations with applied techniques, preparing graduates for advanced study, laboratory careers, and interdisciplinary work at the interface of chemistry, physics and biology.