Trinity University

What you'll study

This interdisciplinary degree blends core topics from biochemistry, molecular biology and biophysics to give you a strong foundation in the chemical and physical principles that govern biological systems. The programme typically begins with foundational modules in general chemistry, introductory biology, calculus and physics, then progresses to more specialised courses such as organic chemistry, cell and molecular biology, biochemistry, structural biology, and physical chemistry for the life sciences.

• Foundational courses: general chemistry, introductory biology, calculus, and physics with laboratory classes to build quantitative and experimental skills.
• Core molecular and biochemical subjects: organic chemistry, genetics, cell biology, enzymology, metabolism and molecular genetics.
• Biophysics and structural modules: biophysical methods, protein structure and dynamics, spectroscopy and imaging techniques, and computational modelling applied to biomolecules.
• Laboratory and practical training: hands-on lab courses in molecular biology techniques, protein expression and purification, analytical instrumentation and experimental design.
• Research and capstone: a substantial independent research project or senior thesis supervised by a faculty member, often carried out in campus laboratories or through external internships.
• Optional electives: bioinformatics, systems biology, pharmacology, neuroscience, or advanced chemistry and physics electives to tailor the degree to specific interests.

Entry requirements

Applicants are expected to demonstrate strong performance in science and mathematics at secondary level. For applicants from different educational systems this generally means a competitive GPA or equivalent and evidence of readiness for university-level science.

• Subject background: prior study of chemistry is strongly recommended; biology and mathematics (calculus) are also advantageous. Practical laboratory experience is helpful but not strictly required.
• Academic preparation: successful applicants typically present strong grades in science and maths courses. International applicants should show equivalent preparation from their national qualifications.
• Other materials: personal statements or essays should convey scientific interest and motivation; academic references that comment on preparedness for rigorous laboratory and quantitative coursework are expected. Standardised test requirements vary by country and applicant type; check Trinity University admissions guidance for current policy.
• Transfer and mature students: applicants with college-level coursework in chemistry, biology or physics will be considered and may have previous credits evaluated for advanced standing.

Career prospects

Graduates from this programme are well placed to pursue a range of scientific and professional paths. Many go on to postgraduate study (Master’s and PhD) in molecular biology, biochemistry, biophysics or related disciplines; others progress to professional schools such as medicine, dentistry or veterinary science.

• Research and industry: roles in academic or industrial research laboratories, biotechnology and pharmaceutical companies, clinical laboratories and diagnostic companies.
• Healthcare and allied professions: preparation for clinical careers and allied health professions where molecular and biochemical expertise is valuable.
• Technical and applied roles: positions in quality control, regulatory affairs, laboratory management, and technical support for instruments and reagents.
• Other careers: science communication, patent and intellectual property roles (with additional legal training), sales and business development in life sciences, and data-oriented roles that leverage bioinformatics or computational skills.

Why study at Trinity University

Trinity University is a small, research-active undergraduate-focused institution where students benefit from close faculty mentoring and accessible laboratory facilities. The university emphasises hands-on learning and undergraduate research, so BMB students commonly undertake independent projects under faculty supervision and present their findings at symposia.

• Undergraduate research opportunities: students can join faculty labs, participate in summer research programmes and complete a senior thesis, gaining practical experience that strengthens graduate or job applications.
• Small class sizes and faculty access: seminars and labs are taught in small groups, enabling personalised feedback and mentoring from professors actively engaged in biochemical and biophysical research.
• Laboratory and instrumentation: well-equipped teaching and research labs provide training in modern molecular biology and biophysical techniques, with opportunities to learn instrumentation, data analysis and experimental design.
• Industry and regional connections: proximity to regional healthcare and biotech organisations offers internship and collaborative opportunities that help bridge academic learning and real-world experience.