University of Massachusetts Boston

What you'll study

This interdisciplinary degree builds a foundation in chemistry, physics and mathematics alongside in-depth study of molecular and cellular biology. Core topics include general and organic chemistry, physical chemistry principles relevant to biomolecules, molecular genetics, cell biology, enzymology and structural biology. Biophysics modules introduce quantitative approaches such as thermodynamics, kinetics and spectroscopy, while molecular biology courses cover DNA/RNA biology, recombinant DNA techniques, gene regulation and proteomics.

Hands-on laboratory experience is central to the programme: students undertake progressive lab courses in chemistry and molecular biology, learn instrumentation and data analysis, and gain experience with techniques such as PCR, gel electrophoresis, chromatography, spectrophotometry and microscopy. Computational and quantitative skills are developed through courses in statistics, bioinformatics and modelling of biological systems.

The curriculum typically includes:

• Foundations: general biology, general chemistry, calculus and physics
• Core molecular and biochemical courses: molecular genetics, cell biology, biochemistry I & II
• Biophysics and physical chemistry of biomolecules
• Laboratory sequences and instrument training
• Electives in areas such as structural biology, neurobiology, genomics, computational biology and microbiology
• Capstone experience: senior seminar, independent research project or internship

Students are encouraged to participate in faculty-led research projects, independent study, and paid or credit-bearing internships with research institutes and companies in the Greater Boston area to apply classroom learning to real-world problems.

Entry requirements

Admission is through the University of Massachusetts Boston undergraduate admissions process. Prospective applicants should have a strong background in high-school mathematics and sciences, especially biology and chemistry. Typical preparation includes completion of high-school chemistry (preferably with a lab component), biology and mathematics (algebra and preferably precalculus or calculus).

Transfer applicants are expected to have completed college-level coursework in chemistry and calculus; specific credit evaluation is handled by the university. International applicants must meet the university's English-language proficiency requirements and submit equivalent academic documentation. As admissions criteria can vary, applicants should consult the university admissions office or programme advisors for detailed guidance.

Career prospects

Graduates are prepared for a wide range of careers that require expertise in molecular biology, biochemistry and quantitative laboratory skills. Common pathways include roles in biotechnology and pharmaceutical research and development, clinical laboratory science, quality control and regulatory affairs, and laboratory support positions. Many graduates proceed to postgraduate study (master's or PhD) in molecular biology, biochemistry, biophysics or related fields, or professional programmes such as medicine, dentistry and physician assistant studies.

Other career options include bioinformatics and computational biology positions, scientific sales and technical support, science policy and communication, patent law (with further legal training), and public-sector laboratory work in government or non-profit research organisations. The programme’s emphasis on laboratory technique, data analysis and research experience makes graduates competitive for both entry-level positions and advanced study.

Why study at University of Massachusetts Boston

UMass Boston offers an urban research university setting with direct access to Boston’s biomedical and biotechnology ecosystem. Students benefit from faculty who are active researchers and from opportunities for undergraduate research, internships and collaborations with nearby hospitals, research institutes and companies. The campus has modern laboratory facilities and core instrumentation to support experimental and computational training.

The university emphasises experiential learning and mentorship, with options for independent projects, senior theses and participation in summer research programmes. Small-group lab courses and advising help prepare students for graduate study or immediate entry into laboratory careers. Additionally, the university’s location provides strong networking and employment opportunities within one of the most active life-science regions in the country.