Biomedical engineering is one of the fastest-growing fields in American higher education, and it’s easy to see why: it offers a straight path from scientific curiosity to technologies that can make a difference in people’s lives.
Yet the students drawn to it rarely want a survey course.
They want to work on the kind of problems the field actually solves: how a prosthetic limb reads a nerve signal, how a scaffold coaxes cells into working tissue, how a diagnostic device catches disease before it becomes an emergency. The challenge is that very few high schools have a biomedical engineering lab, let alone one a student can walk into unsupervised — which is where dedicated biomedical engineering research programs for high school students come in.
That gap is why the landscape of outside research opportunities has grown so crowded. Hospitals, federal agencies, and universities now run dozens of summer and school-year programs aimed specifically at high schoolers curious about cutting edge biomedical research.
Across the dozens of biomedical programs for high school students now available, cost, selectivity, and how much independence a student actually gets once admitted all vary enormously. Sorting a fully funded federal apprenticeship from a $15,000 residential university program takes more than a glance at a homepage. So does telling a program that hands a student their own research question apart from one that simply adds them to someone else’s lab.
The 30 biomedical engineering research programs for high schoolers below close that gap. They range from federally funded internships inside Department of Defense and NASA laboratories to fully virtual, one-on-one research institutes. Each was chosen against the same standard: how much ownership a student has over the work, and how much institutional oversight stands behind it.
This list blends biomedical engineering internships for high school students with fully independent research programs, so knowing which type you’re looking at matters before you apply. Not every program that markets itself as “research” actually hands a student a research question. Some place students on an existing lab’s data-collection team; others let a student define the problem, design the approach, and answer to a faculty mentor for the result. Both can be worthwhile, but they teach different skills, and a student choosing between them should know which one they are signing up for before they apply, not after they arrive. Most biomedical engineering high school research opportunities fall into one of two structures: those where a student drives their own question, and those where a student supports an active lab’s project.
The strongest biomedical engineering programs combine two things: real student agency over the direction of the work, and enough institutional oversight to keep that work rigorous. A university lab, a federal research agency, or an established research institute can typically guarantee both. An unaffiliated online marketplace that simply connects a student with a graduate-student “mentor” for a fee usually cannot.
That distinction matters more for biomedical engineering than for most other subjects. The field sits at the intersection of biology, materials science, mechanical or electrical engineering, and computer science, with applications ranging from medical imaging and diagnostic devices to tissue engineering and other real world healthcare challenges. A program’s institutional home therefore says a great deal about which slice of the field a student will actually touch.
A hospital-hosted internship may offer hands on experience in wet-lab or clinical research alongside researchers and healthcare professionals, while a university engineering department tends to lean toward devices, materials, computational modeling, and software-based research. Reading a program’s host institution carefully, not just its title, is the fastest way to tell whether it matches a student’s actual interest.
Pioneer Academics’ own research institute, discussed below, was built around that same standard: students conceive their own research topic and carry it out under the guidance of a university faculty mentor, rather than joining someone else’s project as a helper.
The highest quality research programs for high school students fall into two categories:
The strongest programs tend to share two qualities: a high degree of student agency in shaping the research direction, and meaningful institutional oversight that ensures academic rigor. Programs with oversight from universities, government bodies, and established non-profits typically possess these qualities, giving students the closest approximation to what college-level research actually looks like and a strong foundation for future college-level research.
To read more about the different types of research programs available, and how they differ from popular “independent mentor-matching” services, read our comprehensive guide on choosing the best research opportunities.
The programs below were selected based on:
Research Science Institute pairs one week of intensive STEM coursework with a five-week research internship in which students conduct individual projects under the guidance of experienced scientists and researchers.
Students complete original research and present their findings through written academic papers and oral presentations. RSI brings together 100 U.S. and international students each summer for the cost-free program hosted in collaboration with MIT.
For a deeper look at admissions and cost, read our full guide to RSI.
The Clark Scholars Program places twelve selected students in intensive, faculty-mentored research at Texas Tech, with weekly seminars, discussions, and field trips alongside their research projects. Texas Tech describes the applicant pool as very competitive, with only twelve scholars participating each summer.
Read our full guide to the Clark Scholars Program for more.
Pioneer Research Institute is a fully online research program in which a student conceives their own research question in a field such as biomedical engineering, and works through it over the course of a term with a university faculty mentor guiding the process.
Unlike programs that place students inside someone else’s ongoing lab work, PRI is built around the student’s own original research from the outset, with the final academic record issued through Oberlin College.
SIMR places students with Stanford faculty, postdoctoral scholars, graduate students, and other researchers to conduct basic biomedical research roughly 40 hours a week. Students spend most of the eight-week program working in an assigned research lab and conclude by presenting a research poster.
The program favors applicants with ties to the Bay Area, given its commuter format and Stanford’s strong preference for local students.
Our full guide to SIMR covers cost, admissions, and what students actually do.
The Garcia MRSEC Summer Research Program combines formal instruction with independent, mentored research in areas including materials science, tissue engineering, medicine, and related interdisciplinary fields, alongside undergraduates, graduate students, and postdocs.
Projects are developed with the goal of reaching a level where students can submit abstracts to the Materials Research Society Fall Meeting; in 2025, Garcia students had 33 presentations accepted.
Read our full guide to the Garcia program for admissions detail.
The Simons Summer Research Program puts students to work at least four hours a day alongside distinguished Stony Brook faculty, joining an active research group and assuming responsibility for a research project.
Students learn research techniques and tools under their assigned mentors while also attending weekly faculty talks, workshops, and other program activities. Every cohort closes with a research symposium where students present a research poster based on their findings.
For those interested in learning more about the program, you can check out our comprehensive guide to the Simons Summer Research Program.
Duke’s STAR Program (Summer Training in Academic Research) places students in mentored teams with Duke faculty through the Duke Clinical Research Institute, working from a one-page proposal toward a full research paper on an original, hypothesis-driven biomedical question.
The program focuses heavily on clinical research, including pharmacology, epidemiology, therapeutics, statistics, and scientific writing, making it a better fit for high school students interested in patient-oriented biomedical research than traditional bench science or engineering.
The Jackson Laboratory Summer Student Program places graduating high school seniors in active genetics and genomics research programs, where they develop a mentored project related to the work of their host lab and gain increasing independence over the ten-week fellowship.
Students work full-time and participate in weekly journal club and professional-development sessions. JAX provides a $7,500 stipend along with room, board, and round-trip travel, though the program is open only to graduating high school seniors and undergraduate students.
The Eugene and Ruth Roberts Summer Student Academy places students in a City of Hope lab matched as closely as possible to their research interests, where they work with faculty mentors and other members of the research team on an independent biomedical research project connected to the lab’s ongoing work.
Students also complete workshops on scientific poster design, presentation, and grant writing, while presenting their own research through weekly seminars and a final poster session.
The Broad Summer Scholars Program pairs a small cohort of rising seniors with Broad Institute scientists, with each student contributing directly to an ongoing research project in areas such as cancer biology, chemical biology, computational biology, psychiatric disease, or infectious disease rather than observing from the sidelines. Eligibility is geographically restrictive: applicants must attend a Massachusetts high school within commuting distance of the Broad Institute.
Read our full guide to BSSP for detail.
As of 2026, NIH discontinued its former dedicated High School Summer Internship Program (HS-SIP) and merged it into its general Summer Internship Program (SIP). Students may apply while they are high school seniors but must graduate before the internship begins.
Selected students work full-time in an NIH Principal Investigator’s research group on biomedical, behavioral, or social science research, including basic, translational, and clinical research. Interns conduct research within the NIH Intramural Research Program and also have access to professional-development and educational programming.
See our full guide to the NIH internship for more program information.
SEAP places high school students in participating Department of the Navy research laboratories, where they work with scientists and engineers and participate in real Naval research for eight weeks during the summer.
The specific research experience varies by laboratory, but SEAP is designed to give students meaningful real-world research experience in STEM under the guidance of professional researchers. Students who participate again in a subsequent year receive a higher stipend, with $4,000 provided to new participants and $4,500 to returning participants.
The AEOP High School Apprenticeship Program program places students in Army research laboratories and partner university labs, where they conduct hands-on research under the mentorship of a professional scientist or engineer.
Interns are required to submit a written research abstract at the end of their term, which is published in the online AEOP Research Journal. Because placements are site-specific, research fields, internship schedules, application deadlines, and lab availability vary considerably across locations.
NASA’s OSTEM internships give students the opportunity to contribute to real NASA projects under the guidance of agency mentors, with assignments varying by project and NASA center. Depending on the placement, interns may contribute to research, data analysis, testing, software, engineering, or other mission-related work.
High school eligibility currently varies by opportunity: although NASA’s central OSTEM eligibility table lists college-level students, some NASA centers, including the Goddard Institute for Space Studies, continue to explicitly offer OSTEM internships to high school students.
ASPIRE pairs each student with an APL staff mentor to complete a hands-on technical project and solve problems in a professional STEM environment. Projects vary according to mentor availability and may involve engineering, programming, data analysis, research and development, life sciences, or experimental lab work.
APL explicitly states that it does not prioritize applicants with the highest GPA, the most STEM experience, or the strongest resume; mentors instead consider factors such as curiosity, enthusiasm, critical thinking, communication skills, and relevant interests.
The HOPP Summer Student Program gives students an eight-week biomedical or computational lab-based research experience at Memorial Sloan Kettering.
Students are paired with a research mentor and complete a self-directed project that supports the Principal Investigator’s broader research objectives, while developing technical skills and participating in laboratory meetings and program sessions.
MSK reports that the program enrolls approximately 20 students from more than 1,000 applicants each summer, for an acceptance rate of about 2%.
Fred Hutch’s SHIP program opens with two weeks of lab-safety and technique training before placing interns in pairs with a host mentor in a Fred Hutch lab or research group for the remaining six weeks. There, their activities depend on the host group’s ongoing work and may include data entry, laboratory meetings, making solutions or dilutions, and creating culture plates, alongside weekly sessions on topics such as research ethics and biostatistics.
Interns close the program with a reflection presentation summarizing what they did and learned for the Fred Hutch community, teachers, family, and friends.
Rockefeller’s SSRP organizes 32 scholars into four research teams of 8–10 students, each supported by at least three scientist-mentors from Rockefeller, Memorial Sloan Kettering, and Weill Cornell Medicine. After learning the team’s topic and relevant research techniques, scholars choose a research question related to that topic, explore it with guidance from their mentors, analyze their data, and create a poster for the program’s final symposium.
Rockefeller does not provide housing, but students outside the New York Tri-State Area are encouraged to apply if they can arrange their own accommodations and transportation.
Read our full guide to Rockefeller’s SSRP for more.
The UPMC Hillman Cancer Center Academy places students in one of nine research sites across University of Pittsburgh and UPMC facilities, where they complete mentored cancer-research projects spanning wet-lab and computational work.
Scholars spend roughly 30–35 hours per week conducting research under the guidance of University faculty, staff, or trainees, alongside lectures, journal clubs, and other academic programming. Students who are 15 are limited to the program’s three computational sites, while students 16 and older are also eligible for wet-lab placements.
The Winship Summer Scholars Research Program pairs students one-on-one with a Winship physician or researcher mentor on a cancer-focused research project, supplemented by lectures on cancer biology, cancer research, and careers in oncology. The program specifically welcomes students from Title I schools, prospective first-generation college students, and students from groups historically underrepresented in STEM.
The St. Jude High School Research Immersion Program places students in pairs with a research mentor in a laboratory, clinical, or data-science setting at St. Jude Children’s Research Hospital. Students work full-time, 40 hours a week, conducting and analyzing a mentored research project over eight weeks. They close the summer by presenting a scientific poster of their findings at a community research exhibition.
The Max Planck Florida Institute internship pays interns $14 per hour for a full-time, six-week placement. Students apply to one of four tracks — neuroscience, scientific programming, mechanical engineering, or programming/coding for public engagement — and complete a mentored project connected to the institute’s neuroscience research or STEM outreach work.
Interns prepare a written scientific abstract based on their project and deliver an end-of-summer presentation to researchers and the MPFI community.
The SPARK Research Mentorship Program places students in Mayo Clinic laboratories for mentored research in fields including biochemistry and molecular biology, drug development, epidemiology, immunology, cancer biology, artificial intelligence, neuroscience, and regenerative sciences.
Students spend at least 25 hours per week in the lab during the summer and continue their projects on a flexible schedule after school resumes. Each scholar develops a research poster and must enter their project in a regional science fair, with qualifying projects advancing to state and international competitions.
The CURE Program pairs each student with a research mentor for a full-time, hands-on cancer research project within a DF/HCC research environment, with placements spanning basic, clinical, population science, and nursing research. Students conclude the summer by writing a scientific abstract and formally presenting their research findings.
Placements are available across the seven DF/HCC member institutions, including Dana-Farber Cancer Institute, Boston Children’s Hospital, and Massachusetts General Hospital. CURE is housed within the Initiative to Eliminate Cancer Disparities, whose work includes increasing diversity among cancer researchers and trainees.
CHOP-RISES is structured as a multi-summer research pipeline: Level I introduces rising juniors to hands-on laboratory research and STEM-M careers, while Level II adds research specialization, an independent project, and mentorship training for returning students. Students who successfully complete both summers may return for an optional Level III, where they continue developing their research and leadership skills. The program is designed for Philadelphia public and charter school students, including students who face barriers to participating in research.
NYU ARISE begins with four weeks of remote workshops in research skills, safety, and college writing before students move into six weeks of in-person research. Students are matched with a participating NYU research lab, where they work with faculty and research mentors on real-world projects and conclude the program by presenting their research.
Participating labs span dozens of research areas, including micro-bioengineering, biomolecular engineering, bio-interfacial engineering, and protein engineering, so biomedical engineering-related placements are available but not guaranteed during lab matching.
Read our full guide to NYU ARISE for admissions detail.
The Heithoff-Brody High School Summer Scholars Program pairs students one-on-one with a dedicated Salk research mentor to complete a hands-on research project, supplemented by seminars, workshops, and biotech industry site visits. Scholars develop skills ranging from wet-lab techniques and bioinformatics to data analysis and science communication.
The program closes with a research symposium where students present their findings as a formal scientific talk or poster to mentors, lab teams, and other members of the Salk community.
UF’s Student Science Training Program assigns each student to a UF research lab, where they join a faculty mentor’s research team and contribute to ongoing research, while also attending a daily interdisciplinary lecture series and a UF Honors seminar.
Students produce a scientific research paper, research poster, and oral presentations based on their laboratory work. Students enrolled in Florida high schools can also earn dual-enrollment credit through the program, an option not available to out-of-state or international participants.
RIBS spends its first two weeks on structured training in molecular, microbiological, and cell biological laboratory techniques before students spend the remaining two weeks designing and carrying out an independent research project. Most of each weekday is spent in the lab, supplemented by lectures, scientific writing, research articles, and faculty seminars.
The program concludes with a research forum where students present the results of their projects. Read our full guide to RIBS for more.
ENLACE places students in pairs in UC San Diego research laboratories, with placements based on the area of interest described in each student’s application. Scholars typically spend weekdays conducting research under laboratory mentors while also participating in lectures, college-preparation workshops, and weekend activities.
Research opportunities span biological, engineering, health, and physical sciences, although specific lab placements are determined by the program and high school students are not guaranteed placement in medical or biomedical research laboratories.
Not every one of these biomedical engineering programs for high school students hands a student their own research question from day one. Start with format before anything else. A residential program like RSI at MIT or Texas Tech’s Clark Scholars asks a student to leave home for six or seven weeks. A fully virtual option like Pioneer Research Institute removes that barrier entirely, which matters for students without the flexibility, funds, or family support to travel. Neither format is more rigorous than the other. Research ownership is one factor to consider, alongside the depth of the work, mentorship, time commitment, and final research output.
Cost, eligibility, and program dates rule out programs fast. Several entries on this list pay a stipend and charge nothing, while others run several thousand dollars; several more are restricted to a specific county, state, or partner-school list. Read the eligibility bullet before falling in love with a program’s name, since a Massachusetts-only or San Diego County-only restriction ends the conversation regardless of how strong the lab is. A student who lives outside every regional program’s catchment area is often better served by an option with broader geographic eligibility, such as SEAP, or a fully virtual program like Pioneer Research Institute.
Grade level narrows the field further than most students expect. Many selective research programs do not become available until late in high school. RSI and Simons are primarily aimed at students entering their senior year, Rockefeller’s SSRP accepts current juniors and seniors, and NIH SIP allows high school seniors to apply if they graduate before the internship begins. Freshmen and sophomores therefore have a much smaller pool of options and should look first at programs with broader grade-level eligibility, while treating junior- and senior-level programs as longer-term goals.
Finally, weigh selectivity against fit. HOPP reports an acceptance rate of about 2%, while Simons reports an admission rate below 5%, but many programs do not publish an official acceptance rate at all. Selectivity also tells you little about the kind of research experience a student will have. Pioneer Research Institute, for example, has students develop an original research topic after initial seminars and literature review, while many laboratory internships place students within an ongoing faculty research project.
A program that lets a student drive their own biomedical engineering question offers a different kind of preparation than one where a student contributes to an established lab project. Both can build substantial research skills, and students should understand which model they are choosing.
Selectivity also says nothing about cost or accessibility on its own. Some highly selective programs are free to attend, while other programs with broader eligibility charge several thousand dollars. The two factors should always be weighed together, not treated as a single scale. For students weighing biomedical engineering against adjacent fields, our guides to the best medical summer programs, medical internships, and biology programs for high school students cover related options this list doesn’t.
Strong biomedical engineering research programs generally combine substantive research work, close mentorship, and meaningful institutional oversight. Programs such as Research Science Institute, Stanford’s SIMR, and Pioneer Research Institute use different research models, so the right choice depends heavily on a student’s location, budget, grade level, and how much ownership they want over their project.
Several selective programs are geographically restricted or open only to students at particular stages of high school. A student earlier in high school, or one outside a program’s eligible region, is often better served by one of the nationally open options on this list than by pursuing a program they cannot yet qualify for.
Very few actually do. Most programs on this list provide research experience without awarding transcripted college credit. Pioneer Research Institute is one fully virtual option that awards four college credits directly through Oberlin College and Conservatory.
Among in-person options, the University of Chicago‘s RIBS program awards 200 UChicago units, equivalent to 10 quarter hours or 6.6 semester hours, while the University of Florida‘s SSTP offers dual-enrollment credit to students enrolled in Florida high schools.
Costs vary enormously, from free federal and non-profit programs to residential university programs costing more than $15,000. A higher price tag does not necessarily indicate a stronger research experience. Several highly selective programs on this list, including RSI and SIMR, charge no participation fee.
Families should also check for need-based aid before ruling out a program on cost alone. The Pioneer Research Institute will provide aid to cover 100% of demonstrated financial need. UChicago’s RIBS offers substantial need-based reductions to qualifying families, while UC San Diego’s ENLACE offers need-based scholarships.
The labels overlap more than they might suggest. An internship often places a student within an existing laboratory or organization, making it useful for gaining exposure to professional research environments. A research program, on the other hand, may be structured specifically around developing and carrying out a research project. Neither tells you by itself how much ownership the student will have. Some interns manage substantial and meaningful projects of their own, while some research-program participants contribute to questions defined by a faculty laboratory.
A more useful distinction is between mentor-directed and student-driven research. In a mentor-directed experience, a student may contribute experiments, analysis, coding, or engineering work to an established project. In a more student-driven program, the student helps formulate the research question and takes greater responsibility for the direction of the project.
Programs such as SEAP and ASPIRE commonly place students into existing research or technical environments, while Pioneer Research Institute has students move from seminars and literature review toward formulating an original research question with faculty guidance. Both models can build substantial research skills.
Among programs that publish current figures, the Human Oncology and Pathogenesis Program (HOPP) at Memorial Sloan Kettering reports an acceptance rate of about 2%, Stony Brook’s Simons Summer Research Program reports an admission rate below 5%, and the ASPIRE Program at Johns Hopkins APL reports an acceptance rate of about 7% for new students.
Many other programs, including RSI and several federal and university-hosted options, do not publish a current official acceptance rate, so published figures provide only a partial picture of program selectivity. Selectivity is best considered alongside research fit, cost, eligibility, and the type of mentorship a student wants.
There’s no single biomedical engineering program that fits everyone. Location, budget, grade level, research interests, and the amount of ownership a student wants over a project can all change which option makes sense. The programs above differ substantially in cost, format, mentorship, and research structure. Some embed students in an active laboratory project; others give students more responsibility for developing the research question themselves.
What matters for students considering future study in biomedical engineering is understanding what they will actually do: who defines the research question, how closely the work is mentored, and what the student produces. Those questions make it much easier to distinguish a substantive research experience from a program that mainly offers exposure to a field.
If you’re interested in conducting the highest level of research for high school students, consider joining a Pioneer information session to learn more about the Pioneer Research Institute.
Based on a recent survey, 71 percent of Pioneer Research scholars’ acceptances were to the top 20 US colleges and universities. Additionally, our alumni report acceptances to highly-selective institutions at a rate five times higher than the school’s published acceptance rate.
If you are a 9th or 10th grader, we encourage you to also check out the Global Problem-Solving Institute. You’ll have the rare opportunity to take an interdisciplinary approach to complex world problems, while earning college credits from UNC-Chapel Hill.
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