North Carolina State University

What you'll study

The BBMB curriculum builds a strong foundation in chemistry, physics and mathematics before moving into molecular and cellular science, and quantitative approaches to biological problems. Core topics include general and organic chemistry, physical chemistry principles relevant to biomolecules, calculus and introductory physics, followed by genetics, cell biology and molecular biology.

• Foundational courses: general chemistry, organic chemistry, introductory physics, calculus and statistics to provide the quantitative grounding needed for molecular work.
• Biological and molecular courses: cell biology, genetics, molecular biology, metabolism and signal transduction, and advanced biochemistry focused on structure–function relationships of proteins, nucleic acids and membranes.
• Biophysical and quantitative topics: thermodynamics, kinetics, spectroscopy, structural biology concepts and introduction to computational and bioinformatics methods.
• Laboratory training: progressive hands‑on lab courses covering analytical techniques, molecular cloning, protein purification and characterization, and advanced laboratory electives emphasising experimental design and data analysis.
• Research and capstone: opportunities for independent undergraduate research, laboratory rotations and a senior capstone or seminar sequence that integrates experimental and literature‑based projects.
• Electives and specialisations: students can choose electives or minors in areas such as bioinformatics, chemical biology, neuroscience, biomanufacturing or environmental science to tailor the degree to specific interests.

Entry requirements

Admission is to North Carolina State University and to the BBMB major is typically contingent on successful completion of prerequisite coursework. Prospective students should demonstrate a strong secondary‑school record, particularly in mathematics and the sciences.

• Academic background: strong performance in high‑school courses such as chemistry and biology; preparation in mathematics (calculus or pre‑calculus) and physics is advantageous.
• Standardised tests and transcripts: where required, competitive standardised test scores and a high school transcript are used in the admissions review; transfer applicants should have completed college calculus and introductory chemistry with solid grades.
• Other materials: personal statements, letters of recommendation and evidence of laboratory or research experience strengthen an application; international applicants must meet English proficiency and credential evaluation requirements.
• Progression in the major: entry to upper‑division BBMB courses may require completion of specified lower‑division prerequisites and minimum grades in those courses.

Career prospects

Graduates with a BBMB degree have versatile skills in experimental techniques, quantitative analysis and problem solving, opening pathways into multiple sectors.

• Laboratory and industry positions: roles in biotechnology and pharmaceutical companies, such as research associate, quality control/assurance technician, process development or biomanufacturing staff.
• Clinical and applied sciences: positions in clinical laboratories, public health, diagnostic companies and forensic science (often with appropriate certification).
• Research and academia: many students continue to graduate study (PhD, MD, or professional programmes) to pursue research careers or academic positions.
• Other career paths: opportunities in regulatory affairs, scientific writing, patent and technology transfer (often with additional legal or business training), and roles in science policy or education.

Why study at North Carolina State University

NC State is a research‑intensive university with a strong emphasis on STEM education and hands‑on learning. The BBMB programme benefits from modern laboratory facilities, established core instrumentation resources and an undergraduate research culture that connects students with faculty projects.

• Research Triangle proximity: being in the Research Triangle region provides access to internships, collaborative research and employment opportunities with nearby universities, hospitals and a vibrant biotech industry.
• Undergraduate research and mentorship: numerous opportunities for faculty‑directed research, summer research programmes and projects that can lead to conference presentations and publications.
• Facilities and resources: access to central analytical facilities, computational resources and specialised centres that support advanced biochemical and biophysical techniques.
• Career support: university and departmental career services, employer recruitment events and strong industry connections help students transition from study to professional roles or graduate school.