Bachelor of Science in Bioengineering (BSBE) Degree

4 Years On Campus Bachelors Program

Rice University

Program Overview

The Bachelor of Science in Bioengineering (BSBE) at Rice University brings together engineering, biology, medicine, and quantitative science to help students develop solutions to important challenges in healthcare and biotechnology. It is a strong choice for students interested in areas such as medical devices, tissue engineering, biotechnology, biomedical research, or further study in medicine and graduate programs.

Curriculum Structure

Year 1: Students begin by developing a strong foundation in mathematics and the natural sciences through courses such as Introductory Biology I, General Chemistry I and II, General Chemistry Laboratory I and II, and Single Variable Calculus I and II. These subjects give students the scientific and quantitative background needed to progress into more advanced engineering and bioengineering courses.

Year 2: Students start building their core bioengineering knowledge through courses such as Bioengineering Fundamentals, Fundamentals of Systems Physiology, Systems Physiology Lab Module, and Cell and Molecular Biology for Engineers. They also strengthen their engineering skills through subjects including Bioreaction Engineering, Mechanics/Statics, Ordinary Differential Equations and Linear Algebra, and Bioengineering Thermodynamics.

Year 3: Students move into more specialized areas of bioengineering, studying subjects such as Biomaterials, Biomechanics, Biomedical Engineering Instrumentation, and Transport Phenomena in Bioengineering. Technical electives give students the opportunity to explore areas such as Cellular Engineering, Molecular Techniques in Bioengineering, Introduction to Neuroengineering, and Engineering Drug Delivery Systems.

Year 4: Students apply their knowledge to practical engineering challenges through Bioengineering Design I and II, while advanced laboratory options allow them to explore areas such as Tissue Engineering, Bioprocessing, Computational Modeling, and Medical Device Design. Technical electives provide further flexibility for students to develop expertise that matches their intended career or graduate-study pathway.

Focus areas: Bioengineering fundamentals, systems physiology, cell and molecular biology, bioreaction engineering, biomaterials, biomechanics, biomedical instrumentation, tissue engineering, bioprocessing, computational modeling, medical device design, drug delivery, gene therapy, neuroengineering, bioinformatics, and engineering research.

Learning outcomes: Students develop the ability to use mathematics, science, and engineering principles to solve complex bioengineering problems, design practical solutions, conduct experiments, analyze data, communicate effectively, work as part of a team, consider ethical and societal factors, and continue developing new technical knowledge independently.

Professional alignment (accreditation): The BSBE is accredited by the Engineering Accreditation Commission of ABET under the General Criteria and the Bioengineering, Biomedical and Similarly Named Engineering Program Criteria. This recognized engineering accreditation provides a strong professional foundation for students planning technical careers in bioengineering and related fields.

Reputation (employability rankings): Rice University's School of Engineering reports that its undergraduate Bioengineering program is ranked #8 in the U.S. for Best Biomedical Engineering Undergraduate Programs by U.S. News & World Report. The university also highlights pathways for graduates into medical school, graduate education, research, and industry.

Experiential Learning (Research, Projects, Internships etc.)

The Rice University Bioengineering B.S. gives students plenty of opportunities to turn classroom knowledge into practical experience through laboratory work, research, engineering design, prototyping, and biomedical projects. Students can take part in faculty-led research, work with clinicians and industry professionals, develop prototypes in dedicated engineering spaces, and gain professional experience through internships and research programs connected with Rice and the Texas Medical Center.

Students can build hands-on experience through a range of program-specific opportunities:

Undergraduate research: Through BIOE 400 and BIOE 401, students can investigate current bioengineering problems under the guidance of a faculty mentor and gain direct experience working in a bioengineering research laboratory.
Senior design projects: BIOE 451 and BIOE 452 provide a year-long team-based design experience where students develop biomedical or biotechnology devices. Projects can involve prototyping, testing, safety considerations, FDA requirements, engineering ethics, intellectual property, business planning, and marketing.
Team-based projects: Students work in teams on engineering challenges that can involve faculty members, industry professionals, researchers, clinicians, and healthcare professionals from the Texas Medical Center.
Specialized laboratory modules: Students can gain practical experience through modules including Tissue Engineering Lab Module, Bioprocessing Lab Module, Mechanical Testing Lab Module, Advanced Instrumentation Lab Module, Computational Modeling Lab, Digital Design & Visualization, and Microcontrollers for Medical Device Design.
Biomedical instrumentation: Students can design and build biomedical instrumentation devices and learn how to develop, test, and improve medical-device concepts through hands-on laboratory work.
Computational modeling: The Computational Modeling Lab gives students experience using MATLAB to model biological systems, work with differential equations, perform simulations, optimize models, and analyze biological data.
Digital design and visualization: Students develop digital design skills for bioengineering applications, including image reconstruction, computer-aided design, and parameter modeling.
Microcontroller projects: Students can work with platforms such as Arduino and Raspberry Pi, as well as sensors, motors, pneumatics, and other components to build and test experimental systems.
Tissue engineering and bioprocessing: Laboratory activities can include studying cell viability and proliferation, biomaterial degradation, bacterial growth, and small-scale bioreactor processes, giving students practical exposure to tissue engineering and bioprocessing.
Internships: Students can gain professional experience through opportunities such as the Rice 360° Global Health Technologies Summer Internship and the Summer Cardiovascular Research Internship Program (SCRIP), providing exposure to biomedical research, healthcare challenges, and translational medicine.
Industry and hospital exposure: BIOE 202 – Careers in Bioengineering includes guest lectures and a field trip to an industry partner or hospital, allowing students to see how bioengineering is used in real professional and healthcare environments.
Research facilities and institutes: Students can conduct research through Rice faculty laboratories, research centers and institutes, and facilities connected with the Texas Medical Center, with opportunities spanning areas such as biomedical imaging, diagnostics, drug delivery, computational bioengineering, synthetic biology, tissue engineering, biomaterials, and biomechanics.
Engineering design facilities: The Oshman Engineering Design Kitchen (OEDK) provides a dedicated space for engineering projects, prototyping, fabrication, and senior design work, helping students turn ideas into working solutions.

Progression & Future Opportunities

The Rice University Bachelor of Science in Bioengineering gives graduates a strong foundation for careers across biomedical engineering, biotechnology, healthcare, research, and industry. The degree also keeps several doors open for students who want to enter medical school, pursue graduate research, or move directly into professional roles after graduation.

Typical career paths include Biomedical Engineer, Bioengineering Researcher, Biomedical R&D Specialist, and Biotechnology Professional.

Career development and progression opportunities:

Career support: Rice's Center for Career Development helps students prepare for employment through career programs, advising, and professional resources. The Owl Edge Career Mentoring Program also connects students with Rice alumni for mentoring, externships, and internship opportunities.
Industry and professional connections: Students benefit from Rice's close location to the Texas Medical Center, providing an environment strongly connected to healthcare and biomedical research. The Bioengineering department also works closely with institutions such as Baylor College of Medicine, Texas Children's Hospital, and MD Anderson Cancer Center.
Employment and graduate outcomes: Rice Bioengineering reported that approximately 45% of its 2020 bachelor's graduates entered industry, while around 53% planned to attend medical or graduate school. These figures are specifically for the 2020 Bioengineering graduating cohort.
Salary information: Rice Engineering reports an average starting salary of $106,618 for its engineering graduates. This is a School of Engineering figure rather than a Bioengineering-specific salary, so it should be considered a broader engineering benchmark rather than a guaranteed salary for Bioengineering graduates.
Research opportunities: More than 70% of Rice Bioengineering undergraduates participate in research through faculty laboratories, Rice research centers and institutes, or the Texas Medical Center. Students can explore areas including biomedical imaging, drug delivery, cellular and molecular engineering, computational bioengineering, synthetic biology, tissue engineering, and biomechanics.
Entrepreneurship and innovation: Students can develop business and innovation skills through opportunities such as the Liu Idea Lab for Innovation and Entrepreneurship, OwlSpark, and the Startup Career Fair. These experiences can be particularly valuable for students interested in turning biomedical ideas into products, technologies, or new ventures.
Industry preparation: Internships, professional mentoring, research projects, competitions, and engineering design experiences help students develop practical skills alongside their academic knowledge. This combination can make the transition from university into biomedical and engineering careers more confident and career-focused.
Long-term accreditation value: The BSBE is accredited by the Engineering Accreditation Commission of ABET under the Bioengineering, Biomedical and Similarly Named Engineering Program Criteria. This provides a recognized quality framework for the engineering education students receive and supports preparation for professional engineering careers and further study.
Graduation outcomes: Graduates have progressed into areas such as healthcare, industrial research and development, biotechnology, biopharmaceuticals, biomedical and health informatics, materials and manufacturing, academia, law, and finance. Students therefore have the flexibility to build careers in both technical and broader professional fields.

Further Academic Progression: After completing the BSBE, students can continue into graduate-level study in bioengineering and related disciplines, including a Master of Bioengineering or PhD in Bioengineering at Rice. They can also pursue medical school and other professional programs, with graduate research areas including biomaterials, biofabrication, biomedical imaging and instrumentation, cellular and molecular engineering, synthetic biology, and computational bioengineering.