Georgia Institute of Technology

What you'll study

This programme provides a strong foundation in chemistry and physics integrated with cell and molecular biology, emphasising quantitative and experimental approaches. Core coursework typically includes general and organic chemistry, physical chemistry concepts relevant to biological systems, molecular and cell biology, genetics, enzymology, and biophysical methods.

• Foundational science: General Chemistry, Organic Chemistry, Introductory Physics and Calculus to build mathematical and physical science skills.
• Core biological sciences: Cell Biology, Molecular Biology, Genetics and Development, with laboratory components that stress molecular techniques and experimental design.
• Biochemistry and biophysics: Courses in metabolic and structural biochemistry, protein structure and function, thermodynamics and kinetics applied to biomolecules, spectroscopy and other biophysical methods.
• Quantitative and computational training: Biostatistics, data analysis, computational modelling or bioinformatics courses that teach programming and quantitative analysis of biological data.
• Laboratory and research experience: Progressive hands-on lab courses and opportunities to join faculty-led research groups; many students undertake an independent capstone project or senior thesis.
• Electives and specialisation: Elective options allow focus in areas such as structural biology, synthetic biology, molecular biotechnology, neurobiology, immunology, or advanced physical chemistry topics.
• Interdisciplinary options: Students can combine coursework with minors or certificates in fields such as bioengineering, computational science, or chemistry.

Entry requirements

Admission to Georgia Tech is competitive and seeks students with strong preparation in the sciences and mathematics. Typical expectations for applicants to this programme include:

• High school background: Completed courses in high school mathematics (including precalculus or calculus), biology, chemistry and physics where available. Advanced coursework such as AP/IB or A-levels in STEM subjects is advantageous.
• Academic performance: A strong overall academic record and evidence of success in rigorous STEM classes.
• Standardised tests and assessments: Georgia Tech's policies on standardised tests may vary; applicants should consult the university for current guidance on SAT/ACT requirements or alternatives.
• Personal statement and extracurriculars: Statements, recommendations and evidence of interest in laboratory science or research (internships, science clubs, competitions, or independent projects) strengthen applications.
• International applicants: Proof of English language proficiency (for example through recognised tests) is required where applicable; academic records should be translated and credentialed according to the admissions office guidance.
• Transfer students: Transfer applicants should have completed transferable coursework in chemistry, biology and calculus and meet the credit transfer and GPA criteria set by the institute.

Career prospects

Graduates from this programme enter a wide range of careers in research, industry and health-related fields. The combination of molecular life science knowledge and quantitative skills is valued across multiple sectors.

• Research and development: Roles in academic, government or industrial laboratories, including entry-level research scientist or laboratory technician positions in biotechnology and pharmaceutical companies.
• Biotechnology and pharmaceutical industry: Positions in assay development, quality control, product development, and regulatory affairs.
• Data and computational biology: Opportunities in bioinformatics, computational biology and biostatistics, especially for graduates who pursue the programme's quantitative and programming electives.
• Healthcare and clinical careers: Preparation for medical, dental or other clinical professional schools; roles in clinical laboratory science and diagnostics when combined with appropriate certification or additional training.
• Further study: Many graduates continue to graduate programmes (MS/PhD) in molecular biology, biophysics, bioengineering, chemistry or related disciplines.
• Other pathways: Careers in science policy, patent law (with further qualification), technical consulting, scientific communication and education are also common trajectories.

Why study at Georgia Institute of Technology

Georgia Tech offers a distinctive, quantitatively rigorous environment where molecular life sciences are taught alongside strong training in mathematics, physics and computing. The institute emphasises interdisciplinary research and close collaboration between departments, providing students with access to modern facilities and faculty active in cutting-edge research.

• Research opportunities: Undergraduates can participate in faculty research across areas such as biophysics, structural biology, synthetic biology and systems biology, gaining hands-on experience and mentorship.
• Facilities and resources: Access to well-equipped laboratories, core facilities for microscopy, spectroscopy and sequencing, and computing resources for data-intensive work.
• Industry connections and internships: Strong links with biotechnology, pharmaceutical and healthcare industries in the region support internships, co-op experiences and career placement.
• Interdisciplinary culture: Collaboration with engineering, chemistry, computer science and data science programs allows students to customise their training for diverse career goals.
• Career support: Robust career services, mentoring and alumni networks help students transition into employment or graduate study.