Florida International University

What you'll study

The programme provides a strong foundation in chemistry, physics and quantitative skills before moving into advanced coursework in molecular biology, biochemistry and biophysics. Early years emphasise general chemistry, calculus, physics and introductory biology to build the quantitative and laboratory skills needed for molecular work. Upper-level modules focus on topics such as macromolecular structure and function, enzymology, metabolic pathways, molecular genetics, cell biology, biophysical methods, and structural biology.

Typical course topics and modules include:

• General and Organic Chemistry: stoichiometry, reaction mechanisms, spectroscopy and organic synthesis fundamentals.
• Physical Chemistry and Biophysics: thermodynamics, kinetics, molecular dynamics and techniques such as fluorescence, NMR and circular dichroism.
• Molecular and Cellular Biology: DNA/RNA structure and replication, gene expression, cell signalling and membrane biology.
• Biochemistry: enzyme mechanisms, metabolic regulation, protein structure and function.
• Laboratory Practicals and Techniques: recombinant DNA, PCR, gel electrophoresis, protein purification and analytical methods.
• Advanced and Elective Seminars: topics in genomics, proteomics, computational biology, structural biology and bioinformatics.
• Research, Internship or Capstone: independent research projects in faculty laboratories, internships with local industry or a senior thesis/capstone project that integrates experimental work and data analysis.

Students gain hands-on experience in teaching and research laboratories on the Modesto A. Maidique Campus and can access core facilities for microscopy, proteomics and sequencing. Electives allow specialisation toward molecular biology, structural biochemistry or biophysics, and collaborative projects with nearby hospitals, research institutes and biotech companies are common.

Entry requirements

Applicants are expected to hold a secondary school diploma or equivalent with strong preparation in mathematics and the sciences. Typical academic preparation includes high school chemistry and biology, and algebra or precalculus; calculus and physics are recommended if available. Admissions criteria focus on overall academic record, performance in STEM subjects and a supporting personal statement.

Specific requirements commonly include:

• A completed secondary school qualification equivalent to the US high school diploma with strong grades in science and maths subjects.
• Evidence of preparation in chemistry and biology; coursework in algebra, precalculus or calculus is advantageous.
• Standardised test scores if submitted (policies may vary), and letters of recommendation where applicable.
• For international applicants, proof of English proficiency through accepted tests or qualifications unless exempt.
• Transfer applicants typically need official college transcripts showing completion of lower-division STEM coursework; placement depends on transfer credits and departmental review.

Selection may consider extracurricular experience in laboratory, research, or science-related activities. Prospective students should consult the university admissions pages for application procedures and documentation requirements.

Career prospects

Graduates move into a variety of career paths in industry, healthcare, academia and public service. Common destinations include:

• Research technician or associate roles in university, government or private research laboratories.
• Positions in pharmaceutical and biotechnology companies, including drug discovery, quality control, and process development.
• Healthcare-related roles such as clinical laboratory science, with additional certification or training where required.
• Further study in graduate programmes (MSc/PhD) in molecular biology, biochemistry, biophysics or related fields, or professional schools such as medicine, dentistry or pharmacy.
• Careers in bioinformatics, scientific instrumentation, regulatory affairs, patent law (with additional qualifications) and science communication.

FIU graduates benefit from the university's links with the South Florida biomedical community, providing internship and networking opportunities that support transition into local industry or graduate programmes nationally and internationally.

Why study at Florida International University

Florida International University offers an interdisciplinary BBMB curriculum within a large public research university, combining classroom learning with substantial laboratory training and research opportunities. Students can work in active research groups, access core facilities for molecular and structural analysis, and participate in internships with local hospitals, research institutes and biotechnology companies in the Miami metropolitan area.

The university's diverse student body and urban location provide opportunities for collaborative projects, community engagement and exposure to translational research initiatives. Faculty-led research spans basic molecular mechanisms to applied biotechnology, supporting students who aim for careers in research, industry or professional schools. Advising and career services at FIU help students plan undergraduate research, internships and applications for graduate or professional programmes.