Saint Mary’s University of Minnesota

What you'll study

This programme integrates core principles from chemistry, physics and biology to develop a rigorous understanding of molecules, macromolecular structure, cell function and the physical principles that underlie biological processes. You will take a sequence of foundation courses in general chemistry, organic chemistry, physical chemistry and calculus, together with core biology courses such as cell biology, genetics and microbiology.

Upper‑level and specialised modules typically include topics such as:

• Biochemistry: protein structure and function, enzymology, metabolic pathways and regulation.
• Molecular biology: DNA/RNA structure and function, gene expression, cloning and recombinant DNA technologies.
• Biophysics: thermodynamics of biological systems, spectroscopy, structural methods and modelling of biomolecules.
• Analytical and experimental laboratory skills: spectroscopy, chromatography, electrophoresis, PCR, microscopy and quantitative assay design.
• Computational and quantitative methods: data analysis, statistics, bioinformatics and mathematical modelling relevant to molecular systems.
• Advanced electives and seminars: topics such as proteomics, cell signalling, neurobiology, structural biology and laboratory rotations or capstone research projects.

The degree emphasises practical laboratory experience and scientific communication. Many students complete a year‑long senior research project or internship that develops experimental design, data analysis and technical writing skills, preparing graduates for independent research or professional roles.

Entry requirements

Applicants should have a strong background in science and mathematics from high school. Typical expectations include solid grades in biology, chemistry and mathematics; successful applicants will usually have completed or be prepared to take courses in:

• General (inorganic) chemistry and/or laboratory chemistry
• Biology with laboratory components
• Algebra and precalculus; calculus is strongly recommended
• Physics is recommended but not always required

Saint Mary’s looks for applicants who demonstrate curiosity, problem‑solving ability and readiness for a challenging laboratory curriculum. Admissions may consider a combination of academic transcripts, personal statements, recommendation letters and evidence of laboratory or related extracurricular experience. Transfer students are evaluated on previous college coursework; those transferring laboratory science credits should provide course syllabi for assessment.

Career prospects

Graduates with a degree in Biochemistry, Biophysics and Molecular Biology have diverse career options. Common pathways include:

• Research scientist or technician roles in academic, government or industrial laboratories (biotechnology, pharmaceuticals, agrobiology)
• Further study at graduate or professional schools (master’s or PhD in molecular life sciences, medical, dental or other health professional programmes)
• Clinical laboratory science and diagnostic roles (with appropriate certification or additional training)
• Quality control, regulatory affairs, or technical roles in biotech and pharmaceutical companies
• Science education, science communication and technical sales or support for scientific instrumentation

The degree provides a solid foundation for employers seeking strong laboratory skills, critical thinking and data literacy. Many students also gain experience through internships, undergraduate research and collaborations that help transition into graduate study or the workforce.

Why study at Saint Mary’s University of Minnesota

Saint Mary’s University of Minnesota offers a small, supportive campus environment where students benefit from close faculty mentorship and hands‑on laboratory training. The programme emphasises undergraduate research and often enables students to work directly with faculty on projects, gaining practical experience that is attractive to employers and graduate programmes.

The university’s class sizes and advising structure support personalised academic planning and career preparation. In addition to on‑campus laboratory resources, students frequently have opportunities for internships and partnerships within the regional scientific and healthcare community, helping bridge classroom learning with real‑world experience.