High school students can get involved in medical research by joining a formal summer program, volunteering in a university lab, or running computational projects from a home computer. You don’t need prior experience to start, but you do need a plan for finding a mentor, understanding the ethical rules around human-subjects research, and choosing a project that fits your skills and access. Here’s how to make it happen.
Decide What Kind of Research Fits You
Medical research splits into two broad categories, and knowing which one appeals to you will shape every step that follows. Wet-lab research involves physical experiments: culturing cells, running gels, analyzing tissue samples under a microscope. You need access to a university or hospital lab and a mentor willing to train you on equipment. Computational research uses publicly available datasets to answer medical questions with code and statistics. You can do this from home with a laptop.
If you’re drawn to hands-on science and live near a research university or academic medical center, pursuing a lab position makes sense. If you’re in a rural area, prefer working with data, or can’t commit to being physically present in a lab on a set schedule, computational projects are a realistic alternative that still produces publishable work.
Apply to Structured Summer Programs
Formal research internships give you a mentor, a project, and a credential in one package. They’re competitive, but they’re also the most straightforward path into real research.
The NIH Summer Internship Program is the most well-known. The Clinical Center track places students in biomedical research labs at the National Institutes of Health campus. To be eligible, you must be a U.S. citizen or permanent resident, currently enrolled as a high school senior, and turning 18 by September 30 of the program year. The 2026 application closed on February 18, and selected students are notified by May for an eight-week commitment running mid-June through early August. If you missed this cycle, note those deadlines for next year and apply early.
Beyond the NIH, many research universities and medical schools run their own summer programs for high schoolers. Search for “high school summer research program” along with the name of any university within commuting distance. Pay attention to age minimums (some require you to be 16 or 17), application deadlines (often January through March for summer programs), and whether the program is free or charges tuition. Free programs funded by federal grants tend to be more selective but also more rigorous.
Find a Lab Mentor on Your Own
If you don’t get into a structured program, or if you want to start research during the school year, you can reach out directly to professors at nearby universities. This is called a “cold email,” and it works more often than students expect, as long as you do it well.
Research Before You Write
Don’t send a generic message to 50 professors. Pick five to ten whose work genuinely interests you. Go to the department website for biology, biochemistry, pathology, or whatever field excites you. Read each professor’s lab page, look at their recent publications, and check the “People” tab to see who’s in the lab. Actually read one or two of their papers, even if you only understand the abstract and conclusion. Note specific projects, methods, or findings that caught your attention. This preparation is what separates emails that get replies from ones that get deleted.
Write a Focused, Honest Email
Your email should be short (under 200 words in the body) and accomplish three things: show you’ve read their work, explain why you’re interested, and make it easy to say yes. A good structure looks like this:
- Subject line: Keep it specific. “High School Student Interested in [Lab’s Research Topic]” works better than a vague “Research Opportunity.”
- Opening: Introduce yourself in one sentence. Your name, your school, your year.
- Connection to their work: Mention a specific paper or project and what interested you about it. Two to three sentences.
- What you bring: You don’t need prior lab experience. Mention relevant coursework, a strong work ethic, willingness to learn, or organizational skills. Be honest about your level.
- The ask: Say you’d love the chance to volunteer in their lab and ask if they’d be open to a brief meeting or phone call.
Don’t try to sound impressive or list every award you’ve won. Professors respond to genuine curiosity and a willingness to do unglamorous work (washing glassware, organizing data, maintaining cell cultures). Think about it from their perspective: mentoring a high school student takes time, so show that you’ll be reliable and low-maintenance rather than a burden on the lab.
Expect Silence and Follow Up
Many professors won’t reply. This isn’t personal. Lab funding fluctuates, some groups don’t have capacity for new trainees, and some universities have policies that complicate hosting minors. If you don’t hear back after a week, send one polite follow-up. If there’s still no response, move on to the next name on your list. Emailing ten professors and hearing back from two is a normal hit rate.
Try Computational Research From Home
You don’t need a pipette to do medical research. Bioinformatics and data science projects let you analyze real patient data, gene expression profiles, or protein structures using publicly available datasets and free software.
MD Anderson Cancer Center, for example, publishes standardized datasets from The Cancer Genome Atlas (TCGA) that include gene expression data, proteomics data, microarray data from breast cancer studies, and clinical outcome information. These datasets are formatted as matrices with patient samples as columns and genes or protein identifiers as rows, which means you can load them into Python or R and start exploring patterns.
A realistic starter project might involve comparing gene expression levels between tumor and normal tissue samples, identifying which genes are most differentially expressed in a specific cancer type, or reproducing the analysis from a published paper using the same dataset. You’ll need to learn some programming (Python with pandas and scikit-learn, or R with Bioconductor packages), but there are free tutorials designed specifically for beginners in bioinformatics.
The advantage of computational work is flexibility. You set your own schedule, you don’t need anyone to grant you lab access, and you can still seek a mentor remotely. Email a bioinformatics professor the same way you would a wet-lab researcher, but mention that you’re interested in working with public datasets and are willing to meet over video calls. Remote mentorship is common in computational fields.
Understand the Ethics Rules
Any research involving human subjects, whether you’re collecting survey responses, analyzing patient records, or testing a treatment, must be reviewed by an Institutional Review Board (IRB). An IRB is a committee that evaluates whether a study adequately protects the rights and safety of participants. This applies regardless of where the research takes place: a hospital, a university, a high school classroom, or your home.
As a high school student, you won’t be forming your own IRB. If you’re working in a professor’s lab, the lab’s existing IRB approval will cover your activities as long as you’re working under their protocol. If you’re doing an independent project for a science fair that involves human subjects (surveys, interviews, biological samples), your science fair organization likely has its own review process, and you’ll need to complete it before collecting any data.
If your project involves patient health information, you’ll also encounter HIPAA regulations, which govern how medical records are stored, shared, and de-identified. Your mentor or program coordinator will walk you through any required training. The key thing to understand is that you cannot start collecting data from people until the ethical review is complete. Plan for this in your timeline, because IRB reviews can take weeks.
Projects using only publicly available, de-identified datasets (like the TCGA data mentioned above) generally don’t require IRB approval, which is another reason computational projects are appealing for independent high school researchers.
Make the Most of Your Experience
Getting into a lab is step one. What you do once you’re there determines whether the experience leads to a publication, a strong recommendation letter, or just a line on your resume.
Show up consistently. If you commit to ten hours a week, be there for ten hours a week. Reliability matters more than brilliance in a research setting. Keep a detailed lab notebook or research log from day one, recording what you did, what you observed, and what questions came up. Ask your mentor to explain not just what to do but why each step matters. Understanding the reasoning behind a protocol is what turns you from a pair of extra hands into someone who can eventually design experiments.
Set a goal of presenting your work. Many regional and national science fairs accept research conducted in university labs. Science competitions like Regeneron Science Talent Search and the Regeneron International Science and Engineering Fair are built for exactly this kind of project. Even if your contribution to a larger lab project feels small, your mentor may include you as a co-author on a paper or poster presentation if you’ve made a meaningful contribution over several months.
Start early in your high school career if possible. Freshman or sophomore year gives you time to build skills, develop a relationship with a mentor, and produce results before college applications are due. A student who spent two years in a lab has a far more compelling story than one who squeezed in a six-week summer program the July before senior year.