University of Wisconsin–Parkside

What you'll study

This degree integrates core principles from biochemistry, biophysics and molecular biology to give a deep understanding of molecular processes in cells. The curriculum typically includes foundational coursework in general and organic chemistry, cell and molecular biology, biochemistry, and physics, supported by mathematics and statistics for quantitative analysis.

• Foundations: General biology, general chemistry, introductory physics and calculus or college-level mathematics.
• Core molecular courses: Cell biology, molecular genetics, biochemistry I and II, and structural biology/biophysics.
• Laboratory training: Multi-semester laboratory courses emphasising experimental techniques such as spectroscopy, chromatography, electrophoresis, PCR, and microscopy, with an emphasis on data analysis and laboratory safety.
• Advanced electives: Topics may include enzymology, bioinformatics, proteomics, molecular imaging, cell signalling, and recombinant DNA techniques.
• Research and capstone: Options for independent research projects, senior seminars or a capstone experience in collaboration with faculty, often culminating in a presentation or written report.
• Skills development: Laboratory skills, experimental design, quantitative reasoning, scientific writing and oral communication.

Entry requirements

Applicants should have completed a college-preparatory secondary programme with strong preparation in biology, chemistry and mathematics. Successful candidates typically demonstrate proficiency through high-school coursework in biology, chemistry (including laboratory work), algebra/trigonometry or calculus, and physics where available.

• Academic preparation: Completion of laboratory science and mathematics courses in secondary school; transfer students should present college-level science and math transcripts where applicable.
• Admissions materials: Official transcripts and any institutional application forms. International applicants must show equivalent secondary qualifications and evidence of English language proficiency according to university policy.
• Additional recommendations: Relevant extracurricular experience such as laboratory internships, summer research, or volunteer work in scientific settings can strengthen applications. Placement or prerequisite courses may be required for those without prior college-level credit in key subjects.

Career prospects

Graduates from this programme are prepared for a variety of careers in the life sciences, healthcare and related industries as well as for further study. The strong laboratory and analytical training provides a foundation for both entry-level roles and graduate education.

• Research technician or laboratory specialist in academic, government or industrial labs
• Biotechnology and pharmaceutical industry roles such as quality control, assay development or production support
• Forensic science and clinical laboratory positions (often requiring additional certification)
• Graduate and professional schools (MSc, PhD, MD, DDS, or related programmes) for careers in research, medicine or advanced technical roles
• Regulatory affairs, technical sales, science communication and patent support roles that value scientific literacy
• Secondary-school science teaching with completion of required teacher certification pathways

Why study at University of Wisconsin–Parkside

UW–Parkside offers a personalised undergraduate experience with relatively small class sizes and close faculty mentorship, which supports hands-on training in molecular and biochemical techniques. The department emphasises undergraduate research, giving students opportunities to join faculty-led projects and gain practical laboratory experience that enhances employability and graduate-school preparation.

• Laboratory facilities: Teaching and research labs equipped for modern molecular biology and biochemistry techniques.
• Undergraduate research: Accessible research opportunities and capstone projects that allow students to develop independent investigative skills.
• Regional connections: Proximity to regional healthcare and biotech employers provides internship and collaboration possibilities.
• Supportive environment: Academic advising, STEM support services and transfer pathways designed to help students transition from two-year colleges and progress to advanced study or careers.