Michigan State University

What you'll study

This programme combines foundational coursework in the life sciences and physical sciences with quantitative methods and laboratory experience. Early years focus on core subjects: general chemistry, calculus, introductory physics, and cellular and organismal biology. As you progress you choose concentrations or elective pathways that may include biophysics, physical chemistry, molecular biology, environmental physics, or computational modelling.

Typical modules and learning experiences include:

• Foundations: General Chemistry, Organic Chemistry, Calculus I–II, Introductory Physics, Principles of Biology
• Intermediate and advanced topics: Physical Chemistry, Biochemistry, Statistical and Computational Methods for the Sciences, Advanced Laboratory Techniques
• Laboratory and practical work: Multi-semester labs that develop experimental design, data collection and analysis skills
• Research and capstone: An independent research project or senior capstone integrating biological and physical approaches, often conducted with a faculty mentor
• Electives and special topics: Courses in instrumentation, imaging, systems biology, environmental science, and mathematical modelling

Students are encouraged to take part in undergraduate research, internships in industry or government labs, and interdisciplinary seminars. The programme emphasises quantitative reasoning, laboratory safety and ethical practice in scientific research.

Entry requirements

Admission is through Michigan State University’s undergraduate application process. Successful applicants typically present a strong secondary-school academic record with substantial preparation in mathematics and science.

• Recommended academic preparation: high school courses in algebra, precalculus or calculus, chemistry and physics, and biology
• Demonstrated skills: solid grades in STEM subjects, evidence of analytical and laboratory aptitude
• Application materials: submitted application, personal statement, and any supporting documents required by the university (for example, transcripts and letters of recommendation where requested)
• Standardised tests: general testing policies are set by the university; applicants should check current guidance on whether SAT or ACT scores are required or optional

Transfer students are evaluated on completed college coursework; articulation of prior laboratory and mathematics credit can accelerate progress through the major. Prospective students with specific questions about prerequisites or credit transfer should consult the programme adviser.

Career prospects

Graduates with an interdisciplinary degree in biological and physical sciences have a wide range of career options. The combination of experimental, quantitative and computational training is valued in many sectors.

• Research and development: laboratory technician, research assistant, or entry-level roles in academic, government or industrial research settings
• Biotechnology and pharmaceuticals: roles in process development, quality control, assay development and product testing
• Environmental and applied sciences: environmental monitoring, conservation science, and applied physics roles in resource management
• Data and computational roles: positions that use data analysis and modelling skills in bioinformatics, computational biology or analytics
• Further study and professional careers: many graduates progress to graduate study (MS/PhD) in the biological or physical sciences, medical and health professional programmes, or professional degrees in engineering and related fields
• Science communication and policy: technical writing, outreach, regulatory science and policy roles that benefit from interdisciplinary scientific literacy

Internships, undergraduate research experience and campus career services help students build networks and practical experience for employment or postgraduate study.

Why study at Michigan State University

Michigan State University offers a research-active environment with a large network of faculty across biological and physical science disciplines, giving students access to diverse laboratories and interdisciplinary projects. Facilities for undergraduate learning include extensive teaching laboratories, instrumentation suites and opportunities to work on faculty-led research.

Students benefit from formal and informal pathways to gain hands-on experience—through research assistantships, industry internships in the region, and cross-college collaborations. The university also supports transferable skills development, including data analysis, technical communication and project management, which are highly valued by employers and graduate programmes.

Finally, MSU’s broad curriculum and elective options allow students to tailor their studies to particular scientific interests while taking advantage of campus resources such as academic advising, career services and student organisations focused on science and engineering.