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Ryan Brownlee

– Founder of AspiringMD

Learn how to get research experience as a premed, find a mentor, join a lab, apply to REUs and grants, attend conferences, publish research, and describe it on AMCAS.

Research became one of the largest parts of my premed experience, but I definitely did not start college understanding how any of it worked. I did not have scientists or physicians in my family who could explain what a principal investigator was, how undergraduates actually joined laboratories, what an REU was, how students ended up presenting at conferences, or how somebody eventually became an author on a scientific paper.

I learned those things gradually by finding mentors, emailing professors, joining two basic science laboratories, participating in intensive summer research programs at other universities, applying for research grants, presenting my work, attending conferences, helping write manuscripts, and making plenty of mistakes along the way. My undergraduate research eventually included work involving mercury transport and nephrotoxicity, kidney biology, and other basic science questions, while my research during medical school has expanded into oncology, genomic datasets, clinical outcomes, survival analyses, and other clinical and translational projects.

Research also became one of the areas where I experienced the most failure during college. Experiments did not work, bacteria did not grow when they were supposed to, protocols needed troubleshooting, data sometimes behaved differently from what we expected, and I regularly had to go back to mentors or teammates and admit that I did not know why something had happened. Those experiences became surprisingly useful later because they gave me genuine stories about failure, teamwork, asking for help, adapting a plan, and learning to be comfortable when the answer was not obvious.

By the time I applied to medical school, research had become substantial enough that I seriously considered MD/PhD training and applied to both MD and MD/PhD programs before ultimately going the MD route fit me better. My undergraduate work led to research grants, more than 20 conference experiences, poster and oral presentations, three papers from my undergraduate research with additional work continuing afterward, the Barry M. Goldwater Scholarship, and some of the strongest mentor relationships I developed during college.

Research has continued to be a major part of my life in medical school, but the way I participate in it has changed. Instead of focusing primarily on bench experiments, I now spend much more time working with clinical datasets, survival analyses, genomic information, statistics, abstracts, manuscripts, peer review, and mentoring younger students through study design, RStudio, troubleshooting, abstracts, presentations, and scientific writing.

That progression is why I built this Scientific Research section of AspiringMD. Whether you are a freshman asking what undergraduate research even is, a premed trying to cold email your first professor, a student applying to an REU, someone whose poster was just accepted to a conference, or a researcher trying to write your first manuscript, I want this page to help you understand what comes next and how the pieces of a research career begin connecting to one another.

Does Research Matter for Medical School?

Research can be an excellent premed experience, but I would not treat it as a universal box that every medical school applicant must check. The AAMC explains in its guide to getting research experience that research can help students develop competencies such as critical thinking, quantitative reasoning, scientific reasoning, teamwork, and communication, while individual medical schools differ in how heavily they emphasize research.

That distinction matters because research became a very large part of my application, but that does not mean I think every applicant needs thousands of research hours or several publications. If you are interested in academic medicine, research-intensive medical schools, MD/PhD training, or simply enjoy trying to answer questions that do not already have known answers, research may become one of your most meaningful experiences.

If you dislike research after giving it a reasonable chance, I would not force yourself to spend three years in a laboratory simply because you believe medical schools require a publication. You could have an excellent application centered more heavily around clinical work, service, teaching, advocacy, leadership, or another area that genuinely fits your interests.

My Is Being a Research Assistant Helpful for Medical School? guide goes much deeper into how research can strengthen an application and when it may or may not be worth prioritizing.

Start With Understanding What Undergraduate Research Actually Is

If you have never been inside a research laboratory, the word “research” can sound much more mysterious than it actually is. At its core, you are joining a team that is trying to answer a question using a systematic method rather than completing an assignment where the professor already knows the correct result.

The day-to-day work depends enormously on the field. A basic science student might maintain cells, prepare reagents, run PCR, work with animal models, image tissue, or perform assays, while a clinical researcher may review patient records, create databases, collect outcomes, perform statistical analyses, or help with prospective studies.

Computational and genomic research can look different again because much of your work may involve coding, cleaning large datasets, running models, analyzing gene expression, or interpreting results. Public health, psychology, epidemiology, health services, education, and community-based research each have their own methods as well.

I have worked on both sides of that spectrum. My undergraduate years were much more heavily based in traditional basic science, while a significant portion of my current medical-school research involves clinical data, oncology, genomics, and statistical analysis.

If you want a complete introduction before you begin looking for a laboratory, start with my What Is Undergraduate Research? A Premed Student’s Guide. I explain what student researchers actually do, how laboratories are organized, what your first months may look like, and what kinds of outcomes can eventually develop from the experience.

Basic Science Research Was Where I Started

My undergraduate research experience began primarily in basic science laboratories. Some of my work involved mercury uptake, transport, toxicity, kidney biology, and nephrotoxicity, which meant I was learning experimental techniques and working with biological models rather than sitting behind a computer analyzing an existing patient database.

I liked basic science because you are very close to the process of generating the evidence. When something changes in the experiment, you have to think about whether the biology changed, the protocol changed, something was measured incorrectly, or the experiment simply needs to be repeated.

That can also make basic science extremely frustrating. You may spend a long time producing a small amount of usable data, and a project that looks simple when summarized in a published figure may have required months of trial and error to create that figure.

Those frustrating parts ended up teaching me a great deal. Research was probably the first place where I truly learned that following the correct steps does not guarantee a clean answer and that sometimes the next correct step is figuring out why the expected answer never appeared.

Clinical Research Became More Important for Me in Medical School

My research changed substantially once I entered medical school. I now work on projects involving clinical outcomes, oncology, genomic datasets, survival analysis, patient characteristics, treatment patterns, and other questions that can often be investigated using existing clinical or public datasets.

This type of research moves much faster in some ways because you are not necessarily waiting weeks for a biological experiment to finish, but it creates its own problems. Clinical datasets contain missing variables, definitions need to be precise, confounding becomes important, coding decisions can change an analysis, and a statistically significant result may still have limited clinical importance.

Working in both basic and clinical research has been particularly useful because the two environments taught me different ways to think about evidence. Bench research forced me to think carefully about experimental control and biological mechanisms, while clinical research has made me much more attentive to study design, bias, patient selection, statistical assumptions, and the difference between an association and something that can actually change patient care.

You do not need to decide which side you prefer before joining your first project. Your first research experience can simply help you figure out whether you enjoy the process enough to explore another type later.

How to Choose the Best Type of Research for You

I would begin with two questions: What topics interest you, and what skills do you want to learn? The specific disease area matters, but the actual type of research may matter just as much because your daily experience can be completely different in a wet lab, clinical research group, public health team, or computational laboratory.

If you enjoy hands-on experimentation and want to understand biological mechanisms, basic science may fit you well. If you are interested in patient outcomes, treatment effectiveness, healthcare delivery, epidemiology, or translating existing clinical information into evidence, clinical or outcomes research may be more appealing.

If you enjoy statistics, programming, large datasets, genomics, or modeling, computational research can be an excellent option. Translational research can sit somewhere between basic and clinical work, attempting to move discoveries toward applications that may ultimately affect patients.

My How to Pick Your Research Field and Type of Research guide walks through these differences in much more detail. I would read that before emailing twenty professors randomly because knowing what you want makes it much easier to identify laboratories that could actually fit you.

Your Research Mentor May Matter More Than the Exact Topic

This is one of the strongest opinions I developed after working in multiple research environments. A fascinating project with poor mentorship can become a miserable experience, while a slightly broader topic with a mentor who genuinely teaches students can transform your entire undergraduate career.

I experienced different strengths in my own laboratories. One environment became particularly productive for publications, while another offered much more conference exposure and close mentorship. Neither laboratory was objectively better because they gave me different things that ultimately complemented each other.

A strong mentor can teach you how to read papers, design experiments, troubleshoot problems, analyze data, write abstracts, create posters, apply for grants, prepare manuscripts, and eventually think more independently. They may also become one of the few people who watches your development closely enough over several years to write a detailed medical school recommendation.

My primary research mentors eventually became letter writers for my medical school application, and I considered those some of my strongest letters. They had watched me deal with failed work, accept criticism, ask for help, collaborate with teammates, present research, and gradually become more independent, which gave them far more information than somebody who had only seen my final grade in a class.

My How to Find a Mentor as a Premed guide explains how I evaluate professors, physicians, research mentors, and other potential mentors. For research specifically, I would use it together with the laboratory-selection advice throughout this page.

How I Found Research Mentors

When I was first looking for research, I created a list of roughly ten faculty members who were conducting work that looked potentially interesting. I looked at what their laboratories studied, whether they were publishing actively, who appeared to work in the lab, and whether their research connected with something I could see myself learning about for more than a few weeks.

I eventually narrowed the list and began contacting professors. One of the relationships that developed from those conversations led to a summer research opportunity and then became a laboratory where I remained involved for several years.

That experience taught me that you do not necessarily need a perfectly scripted request. You need enough preparation to show that you understand what the professor studies, enough curiosity to ask reasonable questions, and enough humility to acknowledge that you are still a student trying to learn.

The laboratory that changes your undergraduate experience may begin with one email.

How to Cold Email Professors About Research

Cold emailing professors worked for me, and I still think it is one of the most useful strategies for a student who does not already have research connections. Your email should be short enough that a busy professor can read it quickly while still demonstrating that you contacted them specifically rather than sending the same message to every scientist at the university.

I would introduce yourself, identify your year and area of study, briefly explain why their research caught your attention, mention any relevant experience when you have it, and ask whether they would be willing to meet about potential undergraduate involvement. Attaching a concise résumé can also make it much easier for the professor to understand your background.

You do not need to pretend you understand every technical detail in their newest publication. Reading enough to understand the broad question and prepare one thoughtful observation is much more convincing than copying terminology from the abstract into your email.

My How to Email a Professor About Research: Templates and Examples guide includes complete templates, subject-line ideas, follow-up examples, and the same general strategy that helped me get into multiple laboratories.

Expect Rejection When Looking for a Lab

Professors may not respond to you, and I would not interpret that as evidence that you are not capable of research. A laboratory may already be full, the professor may not have funding, nobody may have time to train another undergraduate, or the PI may simply receive more student emails than they can realistically answer.

That is another reason I would identify several good-fit faculty members rather than placing your entire plan on one professor responding. Send thoughtful outreach, follow up once after a reasonable interval, and continue looking if nothing develops.

Your first opportunity is naturally the hardest because you have the least experience. Once you have spent time in one laboratory, developed skills, and built a mentor relationship, later research opportunities usually become easier because you can demonstrate that you already understand some of what research requires.

What Your First Semester in a Lab May Look Like

Your first semester may not involve designing your own project, presenting at a national conference, or becoming an author on a manuscript. You may spend much of the beginning learning terminology, safety rules, laboratory protocols, software, documentation systems, data structures, or basic techniques.

That is normal because research groups need to trust you before giving you responsibility for expensive equipment, irreplaceable samples, animal experiments, private patient information, or analyses that will eventually appear in a manuscript. The early repetitive work is often part of learning how the larger project functions.

The important thing is whether your responsibility begins changing over time. After you demonstrate reliability, you should gradually understand more of the scientific question and have opportunities to contribute beyond the simplest tasks.

My How to Get the Most Out of Undergraduate Research guide is designed for this exact stage. It explains how to move from simply being in a laboratory toward becoming a more independent and useful member of the research team.

Learn the Research Question, Not Just the Technique

Knowing how to run PCR, enter data, perform an assay, use RStudio, or clean a spreadsheet is useful, but you should eventually be able to explain why you are doing it.

Ask what question the laboratory is trying to answer. Read enough of the background literature to understand why the question matters and where your small task fits within the larger project.

This becomes increasingly important when you present the research or apply to medical school. An interviewer is unlikely to be impressed that you can recite ten laboratory techniques when you cannot explain what your project actually investigated.

I became much better at research once I stopped viewing individual experiments as assignments from my mentor and began understanding how one result connected with the larger hypothesis. That shift is also what makes manuscript writing and conference presentations possible later because you finally understand the story behind the data.

Research Failure Is Part of the Experience

Some of the most useful research experiences I had were things that went wrong.

Experiments failed. Bacteria did not grow properly. Methods had to be repeated, while later computational and clinical projects introduced different problems such as coding errors, data inconsistencies, and statistical decisions that needed to be reconsidered.

Initially, I found this frustrating because school trains you to expect that doing the correct work produces a correct answer. Research teaches you that you can follow a reasonable process and still end up with something unexpected.

Over time, I became much more systematic about troubleshooting. Instead of immediately assuming that the entire project was broken, I learned to check controls, look back through the protocol, identify which variables changed, ask teammates what they were seeing, and involve mentors when the problem moved beyond what I could reasonably solve myself.

Those failures later became some of the most useful experiences I had when writing medical school applications. Challenge, teamwork, failure, and resilience essays were much easier to answer because I had actually spent years learning how to respond when something I cared about did not work.

Ask for More Responsibility Once You Have Earned It

Research responsibility should develop gradually rather than being demanded immediately. Once you are performing your existing work reliably, it is completely reasonable to tell your mentor that you would like to understand more of the analysis, learn another technique, take ownership of a smaller question, create a figure, help write an abstract, or contribute to another stage of the project.

That conversation is different from asking how many months you need to work before you “get a publication.” Authorship, presentations, and other outcomes should follow meaningful contribution rather than being treated as rewards for showing up a particular number of hours.

By my later undergraduate years, I was much more involved in thinking about projects, writing, presenting, grants, and mentoring than I had been during my first weeks in a laboratory. That development took time because I first needed enough knowledge and trust to contribute at that level.

The best research experiences usually show that kind of progression.

Summer Research Programs and REUs Can Accelerate Your Development

Summer research programs were a major part of my own undergraduate experience because they allowed me to spend an intensive period working on research without trying to balance a full schedule of college classes at the same time. They also allowed me to experience research environments outside my home university and see how different laboratories and institutions approached science.

I participated in structured programs at other universities, including an NIH-funded biomedical kidney research experience at UAB, and I received multiple competitive summer research program acceptances. These experiences introduced me to new methods, research mentors, students pursuing PhDs, and MD/PhD physician-scientists, which was especially valuable while I was trying to decide whether physician-scientist training might fit me.

You do not need an elite-name summer program for the summer to matter. A well-mentored program where you take ownership of a project can be much more useful than a famous institution where you spend ten weeks doing work you barely understand.

My Summer Research Programs and REUs for Premeds guide explains what these programs are and who may benefit. Once you are ready to apply, use my How to Get Into an REU or Summer Research Program and How to Write an REU or Summer Research Essay guides for the application itself.

Use My Summer Research Programs Database to Find Opportunities

Finding the programs can sometimes take as much time as applying to them. Universities use different names, eligibility rules, funding structures, and deadlines, and many excellent opportunities are scattered across departmental websites that you would never discover through one generic search.

I built a Premed Summer Programs and Research Experiences Database to bring many of those opportunities into one place. I would use it to identify programs that match your year in college, research interests, eligibility, funding needs, and long-term goals, then verify all current requirements directly with the individual program.

You can also use my broader Premed Scholarships and Paid Research & Internship Programs Database if you want to search beyond traditional REUs. Paid research can be particularly valuable because it allows you to develop your application while earning money rather than assuming every meaningful premed experience needs to be unpaid.

Undergraduate Research Grants Changed How I Thought About Projects

I applied for several undergraduate research grants and eventually received two Beta Beta Beta Research Foundation grants. The money helped support the work, but learning how to write the proposals probably mattered just as much to my development.

A grant forces you to explain a problem clearly, justify why it matters, show that your approach is realistic, provide enough evidence that the work is feasible, and tell a reviewer exactly what the money will accomplish. You cannot hide behind the fact that your mentor understands the project because the person reviewing the application needs to understand it too.

I also learned from grant applications that did not succeed. In one case, reviewer feedback made it clear that I had not included enough preliminary evidence to establish feasibility, which taught me to think much more carefully about what evidence a reviewer needs before believing a proposed project can actually work.

My How to Write an Undergraduate Research Grant Proposal guide covers the complete process, including finding opportunities, developing the proposal, using preliminary results, building a budget, working with your mentor, and responding when the answer is no.

Research Conferences Became One of My Favorite Parts of Research

I attended more than 20 research conferences during my undergraduate years without personally paying the normal conference costs. Those included university, regional, and larger meetings where I had opportunities to give poster and oral presentations, hear scientists discuss work outside my own laboratory, and become much more comfortable explaining my projects to people who had not watched them develop.

Presenting is an excellent test of whether you really understand your research. Someone may ask a question you have never considered, challenge an assumption, or simply look confused enough that you realize your explanation makes sense only to people who work in your laboratory.

I also eventually helped other students reach conferences through my TriBeta leadership. I coordinated portions of registration, abstract submission, grant applications, and travel logistics for around 23 students attending a regional meeting, which showed me the administrative side of research dissemination as well.

If you receive a poster or oral presentation opportunity, read my How to Attend Research Conferences for Free guide before deciding that you cannot afford to attend. I explain how I used departments, research programs, student government, travel awards, mentors, honor societies, and other funding sources rather than personally paying for the normal conference expenses.

You Do Not Need to Attend 20 Conferences

My own number reflects how large research became in my undergraduate experience, not an admissions target. You do not need to collect conference presentations simply because another premed has more of them.

One meaningful project presented at a university or regional conference can give you valuable scientific communication experience. A student whose main interests are service or clinical work may reasonably have far fewer research presentations than I did.

I would use conferences as opportunities to communicate work that is ready to be shared rather than as another number to maximize. The question should be whether presenting helps your development and the project, not whether your CV needs another line.

How Research Turns Into a Publication

Publication looked almost mysterious to me when I first entered research because the papers on PubMed seemed so far removed from the messy experiments I was doing every week. Eventually, I learned that the polished article is simply the final stage of a much longer process involving research questions, methods, failed approaches, usable data, figures, writing, mentor feedback, coauthor revisions, journal submission, peer review, and more revision.

My undergraduate research ultimately led to three papers with additional work developing afterward, and my publication experience has continued growing in medical school. I now work much more actively on abstracts, manuscript sections, analyses, figures, journal selection, submissions, and reviewer responses.

The biggest thing I would tell an undergraduate is that scientific writing is learnable. I was not naturally capable of writing a publishable discussion section when I first entered research, and my mentors made substantial edits because they understood the scientific literature and writing conventions much better than I did.

If your project is approaching the manuscript stage, my How to Write a Scientific Research Paper for Publication guide walks through the title, abstract, introduction, methods, results, discussion, limitations, figures, authorship, journal selection, submission, peer review, and revisions.

A Publication Is Not Required for Your Research to Matter

Publication is exciting, but it is one of the areas where students have limited control. Your project may take years, an experiment may delay the paper, another coauthor may need to finish an analysis, the journal may request revisions, or the manuscript may be rejected and submitted somewhere else.

You should therefore judge your research by more than whether PubMed displays your name before you submit AMCAS. Ask whether you understand the project, developed scientific skills, handled uncertainty, gained independence, communicated results, and built meaningful relationships.

A student who spent two years deeply involved in a project that is still underway can have an excellent research experience. Another student could technically appear as a middle author on a paper while understanding almost nothing about what the project actually did.

The publication strengthens the experience when it represents genuine contribution. It should not replace the experience.

Understand Authorship Before You Chase It

Authorship should represent a meaningful contribution to the work, not simply the number of hours you spent in a laboratory. Depending on the project, your contribution could involve experimental work, study design, data analysis, literature review, figures, interpretation, manuscript writing, or substantial revision.

I would discuss expectations with your mentor rather than assuming every laboratory handles undergraduate authorship the same way. Some groups involve undergraduates heavily in manuscripts, while others may have projects where your work never reaches the level required for authorship.

Learning how to write can increase the ways you are able to contribute. Offer to draft the Methods for an experiment you know extremely well, prepare a figure legend, summarize the literature, or help write a Results section rather than waiting for someone to eventually hand you an authorship position.

Your ability to become useful to the project is much more within your control than the final position of your name.

Your Research Mentor Can Become One of Your Strongest Letter Writers

Research creates unusual mentoring relationships because a principal investigator may observe you for several years across situations that a normal course professor never sees.

They may watch you fail.

They may watch you receive criticism.

They may see whether you admit mistakes.

They may observe how you communicate with graduate students, technicians, other undergraduates, and collaborators.

They may know whether you keep showing up when a project becomes frustrating.

That gives the mentor an enormous amount of material for a recommendation letter.

My own primary research mentors became medical school letter writers, and I considered those relationships some of the most valuable things I gained from undergraduate research. The grants, publications, and conferences were exciting, but the people who taught me how to do research had an impact that lasted much longer than any individual project.

If you are trying to develop those relationships intentionally, use my How to Find a Mentor as a Premed and How to Get a Good Letter of Recommendation guides together.

Research Also Helped Me Decide Against MD/PhD

Good research experience can help you discover that you want an MD/PhD, but it can also help you decide that you do not.

I spent enough time around PhD researchers, graduate students, basic scientists, and physician-scientists to understand much more clearly what a career centered heavily around research could look like. I ultimately applied to both MD and MD/PhD programs because I genuinely considered both paths.

I eventually chose MD.

That did not make the years of research unnecessary because they gave me enough exposure to make a more informed career decision. Research has still remained a major part of my medical-school experience, but choosing MD gave me a training structure that fit the balance I wanted better.

That is another reason to approach undergraduate research as career exploration instead of solely application building.

How My Research Changed Once I Became a Medical Student

Medical school introduced research questions that were much closer to patient outcomes and clinical decision-making. I began working more heavily with oncology, gastrointestinal cancers, lung cancer, clinical databases, gene-expression datasets, survival analyses, treatment outcomes, and other clinical or translational questions.

The scientific skills from undergraduate research still transferred. I already understood that projects change, data need to be questioned, methods matter, failed approaches are normal, and scientific conclusions should be narrower than the story you sometimes wish the results told.

The technical skills changed more. RStudio, clinical datasets, genomic data, retrospective cohort design, statistical analyses, abstracts, and manuscript writing became much larger parts of my daily research work than the wet-lab methods I had used earlier.

That transition convinced me even more that your undergraduate research topic does not need to perfectly match your eventual medical specialty. You are learning how to think and work as a researcher, and those skills can follow you into a completely different field later.

Mentoring Younger Researchers Has Changed My Perspective Again

I now spend time mentoring younger students through research projects, including helping with study design, statistical thinking, RStudio, manuscript writing, troubleshooting, conference abstracts, and presentations. Teaching those skills has made me recognize how many things that feel automatic to me now were completely unfamiliar when I first entered an undergraduate laboratory.

A new student may not know what makes a research question testable, why one statistical analysis fits better than another, how to organize a Results section, or why their first manuscript draft receives extensive edits. That does not mean they are poor researchers because they are simply at the stage where those skills are supposed to be learned.

I try to remember that when I mentor now. My own research mentors gave me room to be inexperienced, ask questions, fail experiments, and gradually take on greater responsibility, so I want younger researchers to have the same opportunity to develop rather than feeling that they need to arrive already knowing how research works.

That full-circle experience is one reason I feel comfortable building this research section of AspiringMD as more than generic application advice. I have now experienced research as the undergraduate trying to enter the lab, the student presenting the poster, the grant applicant, the manuscript author, the medical student developing clinical projects, and the mentor helping someone else begin.

Track Your Research Hours and Projects From the Beginning

Do not wait until AMCAS to reconstruct several years of research from memory. I recommend keeping the laboratory name, mentor, dates, hours, research questions, major responsibilities, techniques, conference presentations, grants, abstracts, manuscripts, publications, awards, and meaningful lessons organized while they are happening.

The reflections can be especially helpful. Write down the experiment that repeatedly failed, the conference question you could not answer, the mentor feedback that changed how you approached the project, or the first time you realized you understood enough to teach another student.

Those details are much more useful during application writing than remembering that you performed PCR 437 times.

You can use my Free Premed Research Hours Tracker Spreadsheet to organize research hours, projects, mentors, presentations, grants, manuscripts, and publications. I would also maintain my Free Premed and Medical Student CV Template so every research output has a permanent place as your record grows.

How Research Appears on AMCAS

Research can appear in several places on the current AMCAS application depending on what you actually accomplished. The 2027 AMCAS Work and Activities section includes separate experience types for Research/Lab, Presentations/Posters, and Publications, which means the underlying research experience and the scholarly products can be represented differently when each is significant enough to deserve its own entry.

The important thing is not repeating the exact same information three times. Your Research/Lab entry can explain the question, your responsibilities, development, troubleshooting, and what you learned, while a Presentations/Posters entry can focus on communicating the work and a Publications entry can focus more specifically on authorship, writing, revisions, and the completed scholarly product.

My Research/Lab AMCAS Experience Description Guide provides a complete structure with research examples. If your experience was specifically bench research, use my Lab Research Assistant AMCAS Guide, while students working more heavily with patients or clinical studies can use the Clinical Research Assistant AMCAS Guide.

For research outputs, use my Presentations/Posters AMCAS Experience Description Guide and Publications AMCAS Experience Description Guide. Those pages explain how to describe what you contributed rather than simply using the entire entry for a citation or conference name.

Do Not Make Your AMCAS Research Description Impossible to Understand

One mistake I see in research writing is assuming technical language makes the experience sound more impressive. If the admissions reader cannot understand the research question, the complexity is working against you.

Explain the project in plain language first. You can still mention important techniques, genomic datasets, statistical analyses, or specialized methods, but the reader should understand why those tools were being used.

This became increasingly important as my own research became more technical. A survival analysis, gene-expression dataset, or molecular experiment may be complicated, but if I understand the project well enough, I should be able to explain the central question to someone outside that specialty.

That ability is useful far beyond medical school admissions because good researchers constantly communicate with collaborators who do not share the same technical background.

Complete AspiringMD Research Resource Library

If you are completely new to research, start with my What Is Undergraduate Research? guide and Is Being a Research Assistant Helpful for Medical School?. Those articles explain what research assistants actually do, what medical-school applicants can gain from research, and why publications are not the only measure of a meaningful experience.

If you are deciding which type of research to pursue, read How to Pick Your Research Field and Type of Research. Once you know approximately what interests you, use How to Find a Mentor as a Premed and How to Email a Professor About Research to identify laboratories and begin reaching out.

If you already joined a laboratory, move to How to Get the Most Out of Undergraduate Research. That guide focuses on becoming more independent, understanding your project, troubleshooting, developing mentor relationships, pursuing presentations, learning scientific writing, and turning the early research position into a deeper experience.

If you are looking for summer research, start with Summer Research Programs and REUs for Premeds and browse my Premed Summer Programs and Research Experiences Database. When application season begins, use How to Get Into an REU or Summer Research Program and my REU and Summer Research Essay Guide.

If you are ready to seek research funding, use How to Write an Undergraduate Research Grant Proposal. That guide incorporates lessons from both the research grants I won and the applications where reviewer feedback showed me what my proposal was missing.

If you have results ready to present, read How to Attend Research Conferences for Free. That article explains how I attended more than 20 conferences without personally paying the normal conference costs and how I combined university, departmental, student-government, conference, society, and mentor support.

If you are moving toward publication, use How to Write a Scientific Research Paper for Publication. It walks through manuscript structure, authorship, titles, abstracts, introductions, methods, results, discussions, limitations, figures, journals, peer review, revision, and the things I wish I understood before writing my first paper.

If you are preparing AMCAS, use my Research/Lab AMCAS Experience Description Guide, Lab Research Assistant AMCAS Guide, Clinical Research Assistant AMCAS Guide, Presentations/Posters AMCAS Guide, and Publications AMCAS Guide. These resources help you separate the underlying research experience from the outputs without turning one project into several repetitive activity descriptions.

Finally, use the Free Premed Research Hours Tracker throughout the process and keep your Premed and Medical Student CV updated. Organization becomes increasingly important once one research project turns into several abstracts, presentations, grants, manuscripts, and collaborations.

Frequently Asked Questions About Research for Premeds

Do premed students need research for medical school?

There is no universal research requirement across every medical school, and applicants can be admitted without research when the rest of the application is strong. Research can still be extremely valuable for developing scientific reasoning, critical thinking, communication, teamwork, and comfort with uncertainty, particularly when you are considering research-intensive medical schools or academic medicine.

Research became one of the largest parts of my own application because I genuinely enjoyed it and spent years becoming more involved. I would not expect another applicant whose strengths are primarily clinical work or service to recreate my research profile simply because it worked for me.

How much research do premeds need?

There is no universal number of research hours that makes an applicant competitive. A short experience can introduce you to research, while several semesters or years naturally give you more opportunities to become independent, present findings, contribute to manuscripts, and build a stronger mentor relationship.

I accumulated around 2,000 hours of undergraduate research because I worked across multiple laboratories and intensive summer programs. That reflects how important research became in my own path rather than a number I think every premed should target.

When should a premed start research?

You can begin exploring research during freshman year, but you do not need to panic if you do not immediately join a laboratory during your first month of college. I would first learn enough about your university, academic workload, and possible research fields to identify opportunities that make sense.

Starting earlier can still be helpful because meaningful research outcomes take time. Several years in a good laboratory can give you much more room for independence, mentoring, grants, presentations, and manuscripts than joining immediately before your medical school application.

What is the best research for premed students?

There is no single best type. Basic science, clinical research, translational research, computational biology, public health, epidemiology, psychology, health services, and many other fields can all develop useful research skills.

I personally started with basic science and later moved heavily into clinical, oncology, genomic, and outcomes research. Experiencing both made me realize that the research method and mentorship can matter more than finding a project whose title sounds obviously medical.

Is clinical research better than basic science for medical school?

Neither is universally better. Clinical research may give you exposure to patient outcomes, medical datasets, trials, epidemiology, or healthcare delivery, while basic science can provide deep experience with biological mechanisms, experiments, controls, and laboratory methods.

Choose the environment that fits your interests and the skills you want to build. Medical schools can understand meaningful research in many disciplines as long as you can explain what you did and what you learned.

Do I need a publication for medical school?

No. Publications can strengthen a research-heavy application, but the timeline is affected by the project, collaborators, journal, peer review, and many factors that an undergraduate cannot control.

My own undergraduate work eventually resulted in publications, but the research had already taught me a great deal before the papers were finished. Mentor relationships, failed experiments, grants, presentations, scientific writing, and increasing independence were meaningful parts of the experience too.

How do I find a research lab as a premed?

Start by identifying faculty members whose work genuinely interests you and reading enough of their recent research to understand the broad questions they investigate. Then send a concise personalized email introducing yourself, explaining why the laboratory interests you, and asking whether the professor would be willing to meet about undergraduate research opportunities.

That strategy worked for me. My How to Email a Professor About Research guide includes complete templates and shows how I would approach those messages now.

What should I look for in a research mentor?

Look beyond publications and prestige. I would want to know whether the mentor actually teaches students, communicates expectations, provides feedback, allows increasing independence, supports presentations or writing, and treats the people in the research group respectfully.

The mentor can become more important to your development than the exact research topic. Some of my most valuable outcomes from research came from relationships with people who taught me how to think rather than from any single experiment.

What if professors do not answer my research emails?

Keep trying with other well-matched professors and follow up once when appropriate. A lack of response can simply mean that the laboratory is full, the professor is busy, funding is limited, or nobody currently has time to train another student.

Do not send an angry follow-up or assume you are being personally rejected from research. Thoughtful persistence is much more useful than repeatedly contacting the same professor after it is clear that the opportunity is not available.

Are REUs good for medical school?

They can be excellent when they provide meaningful full-time research, mentorship, new skills, a stipend, and opportunities to present your work. I participated in structured summer programs myself and found them especially useful for experiencing other research environments and learning more about MD/PhD and physician-scientist careers.

The prestige of the institution is not the main benefit. A supportive program where you understand and contribute to your project can be much more valuable than attending a famous university where you receive very little mentorship.

How competitive are summer research programs?

They can be quite competitive, particularly well-known national programs, which is why I recommend applying to several programs that genuinely fit you rather than relying on one dream acceptance. Your academic preparation, research experience, recommendation letters, essay, interests, and fit with the program can all affect the decision.

I personally applied broadly enough to receive multiple competitive summer research opportunities. The process became easier once I learned to explain how my prior experiences connected with what a particular program could teach me next.

How do undergraduates get research grants?

Universities, departments, honor societies, professional organizations, and research programs can all offer undergraduate funding. Ask your mentor and undergraduate research office, then look carefully at the application requirements because a research proposal is very different from a general scholarship essay.

I received two TriBeta Research Foundation grants and also had unsuccessful applications. Both outcomes taught me how reviewers evaluate feasibility, preliminary evidence, methodology, scientific significance, and budgets.

Can undergraduates present research at conferences?

Yes. Undergraduate students can present at university symposia, regional meetings, national conferences, and professional society events when their work is appropriate for the meeting.

I gave both poster and oral presentations during my undergraduate research and attended more than 20 conferences overall. Those experiences taught me how to communicate research to people outside my laboratory and answer questions I had not necessarily anticipated.

How can students afford research conferences?

Look for department funding, undergraduate research office support, conference travel awards, student-government funding, honor societies, mentor or laboratory funding, institutional grants, and other sources before paying personally. More than one source can often be combined to cover registration, transportation, housing, or other parts of the trip.

That is essentially how I attended more than 20 conferences without personally paying the normal costs. My complete conference funding guide explains the system I used and how I later helped coordinate funding and travel for other student researchers.

How do I get a research publication?

First, become meaningfully involved in a project and understand how the research is progressing. As the project approaches a publishable stage, ask whether you can contribute to figures, data analysis, literature review, abstracts, manuscript sections, or other work that legitimately supports authorship.

Do not assume a particular number of research hours guarantees publication. Authorship should reflect real contribution, and the best thing you can do is become skilled enough to help the team move the project toward completion.

Does a poster count as a publication?

A conference poster is generally a presentation rather than a full publication. If an accompanying abstract is formally published in conference proceedings or a journal supplement, that abstract can be described accurately as a published abstract while the poster remains a presentation.

This distinction matters on AMCAS because Presentations/Posters and Publications are separate categories. My AMCAS guides explain how to describe each without turning one research project into several repetitive entries.

How should I describe research on AMCAS?

Explain the central research question in language a reader outside your field can understand, then identify your specific responsibilities and how they developed. I would also include a meaningful research lesson, such as troubleshooting failed work, recognizing a methodological limitation, learning to interpret negative findings, or becoming more careful about what conclusions data actually support.

Avoid filling the description with jargon or listing every technique you learned. My Research/Lab AMCAS guide includes complete 700-character examples for multiple types of research.

Can research be a Most Meaningful AMCAS activity?

Absolutely, when research genuinely became one of the experiences that shaped you most. Long-term mentorship, scientific independence, repeated failure and troubleshooting, presentations, publications, career exploration, or learning how evidence is generated can all give you enough substance for a meaningful reflection.

Research was one of the defining parts of my own premed experience and contributed significantly to how I thought about MD versus MD/PhD training. Your reason for selecting it should come from what the experience actually meant to you rather than simply because it produced an impressive publication.

Everything About Research

Learn all the types of research, how labs are all VERY different, where to do research, summer programs & REU’s, and what publications and grants are

Grant writing, Conferences, and Publications

Learn how to find and write winning grant proposals, how to go to conferences for free, read poster and oral presentation tutorials, and how to write publications and research papers

Finding & maintaining mentorships and lab positions

Learn all about finding and maintaining a research mentor/professor, cold emailing professors, finding the best lab for YOU, and joining multiple labs vs just one