Rice University

What you'll study

The undergraduate biomedical engineering curriculum at Rice combines core engineering fundamentals with life‑science coursework and applied laboratory work. Students take foundational courses in calculus, linear algebra, differential equations, physics and chemistry alongside introductory and advanced courses in biology, cellular and molecular engineering, biomechanics, biomaterials and biomedical systems.

Typical elements of the programme include:

• Core engineering courses: mechanics, electronics and systems analysis that develop quantitative problem‑solving skills.
• Biological and chemical foundations: cellular and molecular biology, biochemistry and physiology to provide biological context for engineering solutions.
• Specialist modules: topics such as biomaterials, tissue engineering, bioinstrumentation, medical imaging, biosensors, control systems for biological applications and computational bioengineering.
• Laboratory and design work: structured lab classes, maker‑space projects and a year‑long capstone design sequence where student teams develop, prototype and test devices or processes for real clinical or commercial problems.
• Research and electives: opportunities to join faculty research groups, take elective modules in data science or translational medicine, and pursue independent study or honours research projects.

The programme emphasises quantitative modelling, experimental design, data analysis and communication skills. Students can customise their pathway through elective choices and research or entrepreneurship activities.

Entry requirements

Admission to Rice's biomedical engineering undergraduate programme is selective and is offered through Rice University’s general undergraduate admissions process. Successful applicants typically demonstrate strong performance in a rigorous high‑school curriculum with particular strength in mathematics and the sciences.

• Academic background: strong grades in calculus (or pre‑calculus leading to calculus), physics and chemistry; prior exposure to biology is highly recommended.
• Preparation: coursework that develops quantitative reasoning and laboratory skills — for example higher‑level mathematics, laboratory science classes and, where available, computer science or engineering coursework.
• Other evidence: practical experience, research projects, science competitions or engineering activities can strengthen an application, as can evidence of teamwork and communication skills.
• International applicants: should present qualifications that are equivalent to a strong secondary school diploma and meet the university’s standards for English language proficiency and academic preparation.

Because Rice uses a holistic admissions review, applicants are assessed on the whole file, including recommendations, personal statements and extracurricular profile in addition to academic preparation.

Career prospects

Graduates with a biomedical engineering degree from Rice move into a wide range of careers across healthcare, industry and research. Typical destinations include:

• Graduate or professional school — medical school, biomedical engineering master's or PhD programmes, or other advanced degrees.
• Medical device and diagnostics companies — roles in design engineering, product development, quality and regulatory affairs, and manufacturing engineering.
• Biotechnology and pharmaceutical industry — process development, analytical and translational research, and bioinformatics/data science roles.
• Clinical engineering and hospital technology management — working within health systems to implement and maintain biomedical technologies.
• Consulting, entrepreneurship and technology transfer — commercialising innovations, starting companies or supporting translational efforts.

The programme’s emphasis on hands‑on design, research experience and proximity to a major medical and research ecosystem supports smooth transition into both industry roles and advanced study.

Why study at Rice University

Rice offers a personalised undergraduate experience with close faculty mentorship, small class sizes and interdisciplinary collaboration. Biomedical engineering students benefit from access to the George R. Brown School of Engineering and collaborative facilities that foster interaction with life‑science researchers and clinicians.

• Research and clinical links: proximity to a large medical and research community enables collaborative projects, internships and translational research opportunities.
• Undergraduate research and design culture: strong support for students to join labs, undertake independent projects and participate in team‑based capstone design.
• Entrepreneurship and translation: institutional support for commercialisation and start‑up activity provides pathways for students who want to move inventions toward market.
• Residential college system and student support: a close‑knit campus community, advising and career services help students develop professionally and personally while preparing for diverse career paths.