Lynn University

What you'll study

The programme builds a solid foundation in chemistry, physics and cell biology before moving into specialised molecular and biophysical topics. Early study emphasises general chemistry, calculus-based physics, cell biology and introductory molecular biology to develop quantitative and experimental skills.

• Core science modules: General and organic chemistry, introductory and advanced biochemistry, cell and molecular biology, genetics.
• Biophysics and quantitative skills: Physical chemistry as applied to biological systems, thermodynamics, spectroscopy, structural biology and mathematical methods for life sciences.
• Laboratory and technical training: Hands-on laboratory courses in analytical techniques, molecular cloning, protein expression and purification, microscopy and instrumentation, laboratory safety and good research practice.
• Computational and data skills: Bioinformatics, statistical analysis, programming for biological data and modelling of molecular systems.
• Capstone and research: Faculty-mentored independent research project or capstone practicum in a laboratory setting, supported by regular seminar and journal-club participation.
• Electives and interdisciplinary options: Ethics in science, pharmacology, environmental molecular biology, neuroscience modules, and opportunities to take complementary courses across biology, chemistry and physics.

Programme structure typically progresses from foundational coursework in the first two years to advanced, specialised courses, independent research and professional practicum in the final years. Students are encouraged to undertake internships and summer research placements to apply skills in industry or academic settings.

Entry requirements

Applicants should hold a recognised secondary school completion diploma or equivalent, supported by official transcripts. Applicants are expected to have completed college-preparatory coursework with coverage in biology, chemistry and mathematics (algebra and preferably precalculus or calculus).

• Academic preparation: Strong performance in high-school science and maths courses demonstrates readiness for the programme.
• Supporting materials: Personal statement, academic references and a résumé or list of extracurricular science activities are typically required. Transfer applicants should provide college transcripts and descriptions of completed science courses.
• English language proficiency: International students whose first language is not English must demonstrate proficiency by recognised tests or institutional equivalency, or through approved preparatory pathways.

Admissions decisions consider the whole applicant profile, including academic record, evidence of motivation for scientific study, laboratory or research experience where available, and potential for success in a demanding, lab-intensive curriculum.

Career prospects

Graduates gain the laboratory, analytical and computational skills valued across many sectors. Common early-career roles include laboratory technician, research assistant, quality control analyst and clinical laboratory staff. The degree also provides an excellent foundation for postgraduate study (MSc, PhD) in molecular biology, biochemistry, biophysics or related disciplines.

• Industry and applied science: Positions in biotechnology, pharmaceutical companies, diagnostics, environmental testing and food science.
• Healthcare and clinical paths: Preparation for professional programmes such as medicine, dentistry, physician assistant or other allied health careers, often supported by institutional pre-health advising.
• Research and academia: Progression to graduate research degrees and careers in academic or government research laboratories.
• Alternative careers: Opportunities in scientific writing and communication, patent and regulatory affairs, sales and technical support for scientific equipment, and education.

Practical experience through internships, undergraduate research and capstone projects helps graduates demonstrate workplace readiness and can lead directly to employment or competitive graduate-school applications.

Why study at Lynn University

Lynn University emphasises small class sizes and close faculty mentoring, enabling undergraduates to gain hands-on research experience early in their studies. The university supports experiential learning through laboratory-based courses, faculty-led research projects and practicum placements that connect students with the regional scientific community.

• Undergraduate research focus: Students have opportunities to join faculty laboratories, present findings and develop independent projects as part of their capstone experience.
• Modern facilities and teaching labs: The curriculum is delivered in teaching and research laboratories equipped for molecular biology and biochemistry techniques.
• Career and pre-health support: Dedicated advising helps students plan internships, graduate-school applications and professional-school prerequisites.
• Interdisciplinary and global perspective: The programme encourages interdisciplinary coursework and provides options for study abroad or industry placements to broaden scientific and cultural experience.

Together, these elements create an environment where motivated undergraduates can develop the practical skills, theoretical knowledge and professional networks needed for scientific careers or further study.