Biomolecular Engineering and Bioinformatics B.S.

4 Years On Campus Bachelors Program

University of California Santa Cruz

Program Overview

The Biomolecular Engineering and Bioinformatics B.S. at UC Santa Cruz combines biology, chemistry, mathematics, statistics, computer science and engineering to prepare students to tackle problems in biotechnology, biomedical research and biological data analysis. Students can choose between a hands-on Biomolecular Engineering concentration focused on designing biomolecules and cells, or a computational Bioinformatics concentration focused on analysing large-scale biological data from areas such as genome sequencing and proteomics.

Curriculum Structure

First Year: Students establish the scientific and quantitative foundation for the major through courses such as MATH 19A/MATH 19B: Calculus for Science, Engineering, and Mathematics, CHEM 3A/3B/3C: General Chemistry, and BIOL 20A: Cell and Molecular Biology. Students interested in the Biomolecular Engineering concentration also begin developing laboratory skills through courses such as BME 21L: Introduction to Basic Laboratory Techniques, while the broader program introduces the mathematical, chemical and biological concepts needed for later engineering work.

Second Year: Students progress into more specialised scientific and engineering preparation, including CHEM 8A/CHEM 8B: Organic Chemistry, BME 80G: Bioethics in the 21st Century: Science, Business, and Society, and BME 22L: Foundations of Design and Experimentation in Molecular Biology. The Bioinformatics pathway also develops the computational side of the discipline, while the Biomolecular Engineering pathway builds stronger laboratory and molecular-engineering foundations.

Third Year: Upper-division study brings together molecular biology, genomics, programming and engineering. Courses such as BME 105: Genetics in the Genomics Era, BME 110: Computational Biology Tools, and BME 160: Research Programming in the Life Sciences develop the ability to analyse biological information and use computational approaches, while Biomolecular Engineering students can specialise through options such as BME 128: Protein Engineering, BME 177: Engineering Stem Cells, or BME 130: Genomes.

Fourth Year: Students apply their knowledge through advanced technical work, communication and a substantial capstone or research project. Depending on their pathway, students may complete BME 205: Bioinformatics Models and Algorithms, BME 230A: Introduction to Computational Genomics and Systems Biology, the three-quarter BME 129A–C: Project Design and Implementation in Biomolecular Engineering sequence, or BME 195: Senior Thesis Research; Biomolecular Engineering students may also pursue the iGEM synthetic-biology pathway.

Focus areas

Protein engineering, stem cell engineering, synthetic biology, biomolecular design, molecular biology, genomics, bioinformatics, computational biology, biological data analysis, sequencing, systems biology, biomolecular sensors, microfluidics, biotechnology and biomedical engineering.

Learning outcomes

Graduates develop broad knowledge across biology, chemistry, mathematics, statistics and computer science; learn to identify and solve engineering-design problems; write programs in Python; design experiments and analyse data; work effectively in teams; communicate technical work through writing, presentations and posters; and apply ethical reasoning to engineering decisions.

Professional alignment (accreditation)

The official UCSC sources reviewed do not list the Biomolecular Engineering and Bioinformatics B.S. as an ABET-accredited program, so it should not be described as ABET accredited. The curriculum instead emphasises engineering design, experimentation, computational skills, teamwork and professional communication, with a strong connection to UCSC's biomolecular-engineering research environment.

Reputation (employability rankings)

UCSC's official Biomolecular Engineering department highlights its research strengths and lists career pathways including Research Scientist, Product Manager, Engineer, Field Technician, Process Engineer, and IT Specialist/Analyst. The department also notes that UCSC was admitted to the Association of American Universities (AAU) in 2019, while Professor David Haussler was ranked sixth among top scientists in computer science and electronics in the department's published recognition information.

Experiential Learning (Research, Projects, Internships etc.)

The program gives students substantial opportunities to move beyond classroom theory into laboratory research, computational projects and engineering design. Students can work with faculty researchers, develop wet-lab or computational skills, participate in student-led synthetic-biology projects, and complete a major senior capstone through team design, bioinformatics, iGEM or an individual research thesis. UCSC specifically encourages Biomolecular Engineering students to begin research early, while Bioinformatics students can enter research after developing substantial programming preparation.

Students can build practical experience through:

Biomolecular Engineering laboratories: BME 21L introduces basic laboratory techniques, while BME 22L focuses on design and experimentation in molecular biology. Students can progress to laboratory-based options such as BME 128L: Protein Engineering Laboratory and BME 177L: Engineering Stem Cell Laboratory.
Computational tools and programming: BME 110: Computational Biology Tools, BME 160: Research Programming in the Life Sciences, and BME 163: Applied Visualization and Analysis of Scientific Data develop computational and data-analysis capabilities. The program's learning outcomes specifically include Python programming.
Team-based engineering design: BME 129A, BME 129B and BME 129C form a three-quarter senior team-design sequence in which students propose and execute projects, then present their work and produce a capstone report. UCSC describes this option as particularly suitable for students interested in industry.
iGEM synthetic biology: Selected Biomolecular Engineering students can join UCSC's student-led iGEM team and work on an interdisciplinary synthetic-biology project involving areas such as microbial engineering, bioinformatics and bioreactor design. The university reports that students take on substantial project-management and teamwork responsibilities, with the summer project aligned with the international iGEM competition.
Senior thesis research: Students can undertake 15 credits of BME 195: Senior Thesis Research, normally across three quarters, conducting intensive research with a faculty mentor and producing a substantial written thesis. UCSC particularly recommends this pathway for students planning to pursue Ph.D. study.
Genomics research: The UCSC Genomics Institute provides an immersive research environment, while research areas in the department include genomic sequence alignment and assembly, gene finding, RNA and protein sequence analysis, structural prediction and comparative genomics.
Research institutes and facilities: Relevant UCSC resources include the Genomics Institute, Institute for the Biology of Stem Cells, Sequencing Technology Center, QB3, and the W. M. Keck Center for Nanoscale Optofluidics. These resources support work ranging from sequencing and stem-cell research to nanoscale biomedical diagnostics.
Research Pathways: Baskin Engineering's Research Pathways provides learner-centered opportunities including reading groups and mentored, team-based skill-building experiences designed to introduce students to research methods and technical tools.

Progression & Future Opportunities

The Biomolecular Engineering and Bioinformatics B.S. prepares graduates for careers spanning biotechnology, computational biology, engineering, research and information technology. UCSC's department specifically identifies roles such as research scientist, engineer, product manager, field technician, process engineer and IT specialist/analyst, while the program's combination of laboratory, computational and design experience also supports further study in biology, chemistry, biochemistry, computer science and engineering.

Typical career roles include Research Scientist, Biomolecular Engineer, Bioinformatics Scientist, Process Engineer:

Career development and advising: Baskin Engineering provides undergraduate advising covering major declarations, transfer credits, course substitutions, articulations and degree certification. Students also have access to research pathways and engineering student organisations that support technical and professional development.
Employment and salary figures: UCSC's official Biomolecular Engineering sources reviewed do not publish a current program-specific graduate employment rate or salary figure. Therefore, no unsupported salary statistic is included.
University–industry connection: The department's research environment connects quantitative biological research with biotechnology and health applications, while QB3 specifically brings together UC researchers and private-industry collaborators to address problems in human health and the environment.
Research-to-industry experience: The iGEM program gives students experience with multidisciplinary project development, funding, teamwork and real-world synthetic-biology problem solving. UCSC also highlights applications including biomolecular sensors, vaccine development, stem-cell engineering, microfluidics, nanoscale biotechnology and environmental monitoring.
Graduation outcomes: The department identifies career paths in academia, information and biotechnology industries, public health and medical sciences. Its published career-path examples include research scientist, product manager, engineer, field technician, process engineer and IT specialist/analyst.
Long-term professional value: Although the B.S. is not listed as ABET-accredited in the official sources reviewed, students graduate with experience in engineering design, experimentation, Python programming, scientific communication, teamwork and ethical decision-making—skills directly embedded in the program learning outcomes.

Further Academic Progression: Students can continue at UCSC through the Biomolecular Engineering and Bioinformatics M.S., the Biomolecular Engineering and Bioinformatics Ph.D., or the contiguous Bachelor's/Master's pathway, which allows eligible students to complete the M.S. on an accelerated schedule. The department also identifies graduate pathways in biology, chemistry, biochemistry and engineering fields such as computer science and engineering, while Baskin Engineering offers a broader 4+1 bachelor's/master's pathway.