Post By

Ryan Brownlee

– Founder of AspiringMD

Is being a research assistant helpful for medical school? Learn how research strengthens AMCAS, mentorship, letters, publications, leadership, and scientific thinking.

Is Being a Research Assistant Helpful for Medical School?

Becoming a research assistant can be one of the most valuable experiences you pursue as a premed student, especially if you are curious about how scientific discoveries are made, want to work closely with a faculty mentor, or are considering a future in academic medicine.

Research gives you something that is difficult to develop through ordinary coursework. Instead of receiving a question that already has a known answer, you begin working on questions that may not have an answer yet. You learn how to design an experiment, collect and interpret data, question your assumptions, troubleshoot problems, and continue moving forward when your first approach does not work.

That experience can be directly relevant to medical school because medicine is built on evidence, uncertainty, critical thinking, and continuous learning. Physicians have to understand how evidence is created, recognize the limitations of a study, decide whether new findings apply to the patient in front of them, and remain comfortable when the available information does not provide a perfect answer.

The AAMC explains that research experience can help applicants develop critical thinking, quantitative reasoning, scientific reasoning, teamwork, and oral communication. The AAMC also notes that working in research can help you determine whether medicine, medical research, or a combination of the two is the right career for you. Research is not universally required for medical school admission, but it can make you a more competitive applicant and is particularly valuable at research-oriented medical schools.

I personally had a wonderful experience as an undergraduate research assistant. I worked in two basic science laboratories for multiple years, and I felt that the experience was directly applicable to my medical school application because many medical schools value applicants who understand and have participated in the research process.

My time in research allowed me to learn experimental design, become more comfortable with failure and trial and error, attend conferences for poster and oral presentations, contribute to work that was eventually published in a journal, and develop close relationships with mentors who helped me think through major career decisions.

I also worked alongside undergraduate students, master’s students, PhD students, research staff, and faculty members. That environment required a tremendous amount of teamwork because even when I was responsible for my own experiments, my work still existed within a larger project that depended on everyone communicating and contributing.

Research was especially valuable while I was exploring MD/PhD careers because it gave me a much clearer view of what the PhD side of that pathway actually looked like. Rather than imagining a research career from the outside, I was able to observe how scientists developed questions, trained students, applied for funding, dealt with experiments that failed, wrote manuscripts, presented findings, and built a career around investigating problems over many years.

During my summers, I also worked as a research assistant at other universities through structured summer research programs similar to Research Experiences for Undergraduates, commonly called REUs. These experiences allowed me to meet MD/PhD physician-scientists, learn new laboratory techniques, experience different research environments, and bring skills back to the laboratories at my home institution.

Each of my primary research mentors eventually became a letter writer for my medical school application. In my opinion, these were some of the strongest letters I received because my mentors had worked with me for years and had watched me handle failure, accept feedback, collaborate with others, communicate scientific ideas, take responsibility for projects, and gradually grow into a more independent researcher.

For a broader overview of research opportunities, visit my complete scientific research resource page for premed students. You can also read my guide to undergraduate research and how to get the most out of it.

What Does a Research Assistant Do?

A research assistant helps a professor, physician, principal investigator, graduate student, research coordinator, or larger research team carry out a structured project intended to answer a question or produce new knowledge.

The responsibilities vary significantly depending on the field, laboratory, and level of experience. A research assistant in a molecular biology laboratory may prepare solutions, maintain cell cultures, perform polymerase chain reactions, run gels, analyze proteins, assist with animal models, or collect imaging data. A clinical research assistant may screen medical records, recruit participants, obtain consent under supervision, administer surveys, enter data, schedule study visits, or maintain regulatory documents.

A public health research assistant might conduct literature reviews, clean datasets, analyze population-level trends, help design surveys, or work with community partners. A psychology research assistant may recruit participants, administer cognitive assessments, code behaviors, or help manage experimental sessions. A computational research assistant may write code, work with large datasets, build statistical models, or analyze genomic information.

Your earliest responsibilities may be relatively simple because the research team first needs to know that you are dependable and capable of following procedures carefully. You might begin by organizing materials, entering data, washing laboratory equipment, preparing basic reagents, or observing an experienced student.

These responsibilities may not immediately feel exciting, but they help you learn how the laboratory operates while allowing your mentor to evaluate your reliability. As you gain experience, you may begin performing techniques independently, analyzing results, presenting during laboratory meetings, training newer students, contributing to manuscripts, or leading part of a project.

Research assistant positions are therefore highly variable. Two students can both list “undergraduate research assistant” on a résumé while having completely different experiences. One may spend a semester performing repetitive support tasks, while another may remain in the same laboratory for three years, develop an independent hypothesis, present at national conferences, mentor younger students, and contribute to a publication.

Medical schools will care much more about what you actually did, how your responsibilities developed, and what you learned than they will about the title alone.

Is Being a Research Assistant Helpful for Medical School?

Yes, being a research assistant can be very helpful for medical school because it demonstrates intellectual curiosity, scientific reasoning, persistence, teamwork, communication, and the ability to learn through uncertainty.

Research also gives you a clearer understanding of where medical knowledge comes from. Textbooks often present scientific findings as established facts, but research allows you to see the long and sometimes frustrating process that occurs before a finding becomes part of standard medical knowledge.

You may spend weeks trying to optimize an experiment, only to discover that one reagent was unreliable. You may collect data that do not support your original hypothesis. You may realize that your sample is too small, your control group is inappropriate, or your statistical approach does not answer the question you thought it would.

These experiences can be humbling, but they are also where much of the growth occurs. You learn that a failed experiment is not always a personal failure. Sometimes it reveals a weakness in the method, raises a better question, or forces the research team to reconsider an assumption.

The AAMC’s Premed Competencies include scientific inquiry, critical thinking, quantitative reasoning, teamwork and collaboration, oral communication, reliability and dependability, and commitment to learning and growth. A sustained research experience can provide direct examples of each of these competencies.

Research is not a universal requirement for medical school, and an applicant without research can still be admitted when the rest of the application is strong and aligned with the schools being considered. However, research is common among applicants to research-intensive institutions, combined MD/PhD programs, and medical schools with strong academic medicine missions.

The AAMC specifically recommends using the Medical School Admission Requirements database to review individual schools’ missions and the proportion of accepted students who reported research experience. That is a better approach than assuming every medical school values research to the same degree.

Why Does Research Look Good on AMCAS?

Research can look very good on AMCAS because it shows that you have moved beyond simply learning scientific facts and have participated in the process through which those facts are created, tested, challenged, and communicated.

The strongest research entry does not rely on complicated terminology or a long list of laboratory techniques. It helps the reader understand the question your team was investigating, what you personally contributed, how your responsibilities grew, and what the experience taught you.

Research Shows Intellectual Curiosity

One of the greatest benefits of research is that it gives you a structured way to demonstrate intellectual curiosity.

Scientific research begins when someone notices a gap in knowledge and asks a question that cannot be answered by looking at one page in a textbook. You have to read existing literature, understand what is already known, recognize what remains uncertain, and decide how you might collect evidence that moves the field forward.

Even when the project was originally designed by your mentor, you can still demonstrate curiosity through the questions you asked, the papers you read, the patterns you noticed, and the ways you tried to understand why a result occurred.

As you become more experienced, you may begin proposing your own explanations and experiments. You may notice an unexpected result and suggest a follow-up study, identify a limitation in the current method, or connect the laboratory’s work with a question discussed in another course.

Medical schools value applicants who are willing to investigate questions rather than simply memorize conclusions. Medicine changes continuously, so physicians must remain curious and willing to revise their understanding as better evidence becomes available.

Research Teaches You How to Fail and Try Again

Research helped me become much more comfortable with trial and error.

In a laboratory course, the procedure is usually designed to work when you follow the instructions. In real research, you can follow every step carefully and still obtain an unclear or unexpected result.

Experiments fail. Equipment stops working. Samples become contaminated. Data do not support the hypothesis. A technique that worked for another researcher may not work under your exact conditions.

At first, these failures can feel discouraging because students are accustomed to academic environments where success means reaching the correct answer quickly. Research teaches you that progress may require repeating a procedure, changing one variable at a time, asking for help, and patiently documenting what happened.

This is not failure in the sense that your time was necessarily wasted. A well-documented unsuccessful experiment can eliminate one possibility and help the team choose a better direction.

The experience can help you develop resilience and adaptability because you learn to separate your identity from the outcome of one experiment. Instead of assuming that a disappointing result means you are not capable of research, you begin asking what the result can teach you.

That mindset is relevant to medical training, where students and physicians regularly encounter difficult cases, incomplete information, unexpected outcomes, and situations in which the original plan must be reconsidered.

Research Teaches Experimental Design

Working as a research assistant helps you understand that a good experiment involves much more than performing a laboratory technique.

You have to begin with a clear question and determine whether the proposed method can actually answer it. You need appropriate controls, consistent procedures, carefully defined variables, reliable measurements, and a plan for analyzing the resulting data.

You also learn to recognize confounding variables, sources of bias, limitations in sample size, and the difference between association and causation.

These lessons are valuable even when you do not plan to become a full-time scientist. Physicians need to interpret medical literature, understand clinical trials, evaluate diagnostic tests, and recognize when evidence is weaker than a confident conclusion makes it sound.

The AAMC’s scientific inquiry competency specifically describes the ability to formulate research questions and hypotheses, participate in scientific discourse, and understand how scientific knowledge is discovered and validated. Research provides one of the clearest ways to develop that competency.

Research Demonstrates Teamwork

Research is often described as an independent intellectual pursuit, but most modern research depends heavily on teams.

In my undergraduate laboratories, I worked with other undergraduate students, master’s students, PhD students, research staff, and faculty members. Each person had different levels of training and areas of expertise, which meant that I had to learn how to ask questions, receive feedback, communicate results, and contribute to the larger goals of the team.

A project may depend on one person maintaining cell cultures, another performing molecular assays, another managing an animal model, and another analyzing the data. If one person fails to document a procedure or communicate a problem, the consequences can affect everyone.

You also learn to work with people who approach problems differently. A senior scientist may focus on the theoretical significance of a result, while a laboratory manager may immediately notice a practical problem with the protocol. A graduate student may understand the method in greater depth, while a newer undergraduate may ask a basic question that reveals an assumption everyone else overlooked.

This kind of teamwork is directly applicable to medicine, where physicians collaborate with nurses, pharmacists, therapists, laboratory professionals, social workers, technicians, administrators, and other physicians.

Research Builds Communication Skills

Research requires you to communicate complicated ideas to several different audiences.

You may explain your progress during a laboratory meeting, describe a technique to a new student, write a research abstract, create a poster, present an oral talk, or discuss the project with someone who has no background in your field.

Each situation requires a different level of detail. Your principal investigator may want to discuss experimental limitations and future directions, while a student attending a poster session may need a much broader explanation of why the question matters.

Research taught me how to take a complicated project and explain it in a way that another person could understand. That became especially important when I presented posters and oral presentations at conferences.

You cannot place every experiment, result, and limitation on one poster. You have to identify the central message, organize the information visually, and be prepared to answer questions from people with different levels of expertise.

Those communication skills are valuable in medicine because physicians must regularly explain complicated information to patients, families, students, and colleagues.

Research Shows Attention to Detail

Research depends on careful documentation and consistency.

A small labeling mistake can compromise an entire set of samples. An incorrect decimal point can change a reagent concentration. A missing data entry can create confusion months later when the team is trying to reconstruct what happened.

Research assistants learn to maintain laboratory notebooks, follow protocols, verify calculations, label samples, document deviations, and organize data in ways that allow someone else to understand and reproduce the work.

This attention to detail is relevant to medicine, where small errors in medication dosing, documentation, communication, or test interpretation can have serious consequences.

Research Can Demonstrate Leadership

You may not begin a research position with significant leadership responsibilities, but sustained involvement can gradually create opportunities to lead.

After you have been in a laboratory for a while, you may be asked to train a new student, coordinate part of a project, present during meetings, manage supplies, develop a protocol, or oversee a particular experiment.

You may also reach a point where you can pitch a project of your own. This does not necessarily mean creating an entirely separate research program. You might identify a follow-up question within the laboratory’s broader work and propose an experiment that helps answer it.

Taking ownership of a project requires you to organize timelines, communicate with your mentor, troubleshoot problems, coordinate with teammates, and accept responsibility for the quality of the work.

Mentoring younger students can also become an important form of leadership. You begin remembering how overwhelming the laboratory felt when you first entered and learn how to explain techniques without making someone feel embarrassed for asking questions.

Your mentor sees this progression as well. They are no longer evaluating only whether you can follow instructions. They can observe whether you are capable of guiding others, making thoughtful decisions, and contributing independently.

My Experience as an Undergraduate Research Assistant

I worked as a research assistant in two basic science laboratories during college and remained involved for multiple years. In my opinion, this was one of the most valuable parts of my undergraduate experience and one of the most directly applicable activities on my medical school application.

The laboratories gave me an opportunity to move beyond the structured experiments I encountered in science courses and participate in projects where the outcome was genuinely unknown.

I learned how experiments were designed, why controls mattered, how to document methods carefully, and how to interpret results that did not fit our original expectations. I also became much more comfortable with failure because experiments often required several attempts before the method produced useful results.

There were many times when an experiment did not work the way I expected. Instead of simply marking the answer wrong and moving to the next assignment, I had to determine what happened. I would review the protocol, examine each step, discuss possible explanations with other members of the laboratory, and decide what should be changed when the experiment was repeated. That process taught me patience and helped me realize that research progress is rarely a straight line.

The experience also provided mentorship that extended well beyond the specific projects. My mentors helped me think through career decisions, including whether I should pursue an MD, PhD, or combined MD/PhD pathway.

They could give me honest advice because they knew how I approached scientific work. They had watched me during successful experiments, frustrating setbacks, presentations, and long stretches when the project moved more slowly than I wanted.

Research also gave me opportunities to attend conferences and present my work through both posters and oral presentations. These experiences helped me become more comfortable discussing scientific questions, responding to unexpected questions, and explaining why our work mattered.

The research eventually led to a publication, which was exciting because it represented the final product of years of experiments, analysis, revision, and teamwork. However, the publication was not the only reason the experience mattered.

Even without a publication, I would still have gained experimental skills, scientific reasoning, mentorship, teamwork, communication experience, and a much clearer understanding of how research careers operate.

The experience also allowed me to work with students and researchers at several different stages of training. I interacted with undergraduate students, master’s students, PhD students, and senior investigators, which allowed me to observe how research responsibilities and career expectations changed over time.

That exposure was particularly valuable while I was exploring MD/PhD programs. I could see what the PhD portion of the pathway involved and ask myself whether I enjoyed the daily process of research enough to make it a major part of my future career.

How Research Helped Me Explore MD/PhD Careers

Many premed students are attracted to MD/PhD programs because they enjoy science and medicine, but it can be difficult to understand what the combined pathway actually involves without substantial research experience. Working in basic science laboratories gave me an opportunity to see the PhD side of the pathway much more clearly.

I watched graduate students spend years developing expertise in one area, designing experiments, troubleshooting methods, presenting preliminary findings, preparing manuscripts, and gradually becoming more independent. I also saw how faculty members balanced research, mentorship, teaching, administrative responsibilities, and the constant need to obtain funding.

During my summer research experiences at other universities, I met MD/PhD physician-scientists and learned about careers that combined laboratory investigation with clinical medicine.

These conversations helped me understand that an MD/PhD career is not simply a medical career with occasional research added to it. Research is usually a central part of the physician-scientist’s professional identity and requires a genuine willingness to spend substantial time asking scientific questions, managing projects, mentoring researchers, writing manuscripts, and seeking grant support.

Even if you eventually decide not to pursue an MD/PhD, spending meaningful time in research can help you make that decision from experience rather than assumption.

Deciding that you prefer clinical medicine after exploring research is not a failure. The experience still helps you understand scientific evidence and may guide you toward academic medicine, clinical research, quality improvement, or another career that includes scholarship without requiring a PhD.

Can Research Help You Get a Strong Letter of Recommendation?

Research can lead to an excellent medical school letter of recommendation because your mentor may observe you over a longer period and in a wider range of situations than a professor who only taught you in one course.

A professor may know that you earned a strong grade, attended office hours, and participated in class. A research mentor may have watched you work for several years.

They may have observed how you responded when an experiment failed, whether you documented your work carefully, how you treated other members of the team, whether you followed through on commitments, and how your independence developed over time.

My research mentors eventually became medical school letter writers, and I considered their recommendations some of the strongest letters in my application.

They could discuss my intellectual curiosity, scientific ability, persistence, teamwork, communication, and response to feedback using specific examples rather than general compliments.

A strong letter is not guaranteed simply because you joined a laboratory. Your mentor needs enough direct interaction with you to write meaningfully about your work.

In some large laboratories, an undergraduate may work almost entirely with a graduate student or postdoctoral fellow and rarely speak with the principal investigator. The graduate student may know the undergraduate extremely well, but the faculty member whose name appears on the letter may have limited firsthand observations.

This does not mean you should avoid large laboratories, but you should understand how mentorship is structured. Ask who will train and supervise you, whether undergraduates attend laboratory meetings, and how frequently you will meet with the principal investigator.

When possible, remain involved long enough for the mentor to observe your growth. A professor who has watched you progress from a nervous beginner to an independent student researcher can usually write a more detailed letter than someone who supervised you briefly during one summer.

The AAMC’s letter guidelines encourage evaluators to explain how long they have known an applicant, the context in which they interacted, and whether the behaviors described were observed directly. Long-term research relationships can provide exactly that kind of evidence. (AAMC Guidelines for Writing a Letter of Evaluation)

For more help building these relationships, read my guide on how to find a mentor as a premed.

What AMCAS Category Should You Use for a Research Assistant Position?

For most undergraduate research assistant positions, the best AMCAS experience category is Research/Lab.

This category can include basic science research, clinical research, public health research, computational research, psychology research, social science research, engineering research, education research, and other structured projects intended to answer a question or generate knowledge.

The 2027 AMCAS Work and Activities section permits applicants to enter up to 15 experiences and provides 700 characters for each standard experience description. Applicants may designate up to three entries as most meaningful and receive an additional 1,325 characters for each selected reflection.

Even when the research position is paid, Research/Lab will often remain the most appropriate category because it describes the central purpose of the experience.

You might use Paid Employment – Not Medical/Clinical when the employment context is especially important to your story. For example, you may have worked as a full-time research assistant during a gap year to support yourself financially. However, most applicants will benefit from placing a traditional research role under Research/Lab and mentioning within the description that it was paid.

You should not automatically list clinical research as clinical experience. A project involving medical records, datasets, laboratory samples, or study administration without meaningful patient interaction remains primarily research.

When a clinical research assistant regularly recruits, consents, interviews, or conducts study visits with patients, the position may contain both research and clinical elements. AMCAS still requires you to select one category, so you should choose the one that best represents your primary responsibilities and explain the other component in the description.

My Research/Lab AMCAS Experience Description Guide provides a complete structure and multiple 700-character examples.

Students working directly with participants can also use my Clinical Research Assistant AMCAS Experience Description Guide.

Example Research Assistant AMCAS Description

Here is an example that could be adapted for a basic science research assistant:

After joining a molecular biology laboratory studying mechanisms of treatment resistance, I learned cell culture, protein analysis, imaging, and careful laboratory documentation. When early experiments produced inconsistent results, I worked with graduate mentors to evaluate possible sources of variation and revise our protocol. Over three years, I progressed from assisting with established experiments to coordinating part of a project, mentoring newer students, presenting at conferences, and contributing to a manuscript. Research taught me to approach uncertainty with patience, curiosity, and evidence rather than seeing an unexpected result as failure.

Your own description should use language that an admissions reader outside your field can understand. You do not need to include every laboratory technique you learned or reproduce the title of your project word for word.

A strong description usually explains the general question, identifies your contribution, shows how your role developed, and includes a brief reflection about scientific reasoning, uncertainty, teamwork, mentorship, or communication.

Should Research Be One of Your Most Meaningful AMCAS Experiences?

Research can be an excellent Most Meaningful experience when you were involved for a substantial period, developed a close mentoring relationship, gained increasing responsibility, contributed meaningfully to a project, or experienced a major change in how you understand science and medicine.

My research experience would have been a reasonable Most Meaningful selection because I remained involved for years, participated in several laboratories, presented at conferences, contributed to a publication, explored MD/PhD careers, and developed relationships with mentors who influenced my professional development.

Your reflection does not need to focus on receiving a publication or winning an award. You could discuss the first time an experiment failed after weeks of preparation, the moment you realized that uncertainty was a normal part of science, or the experience of mentoring a younger student through a mistake you had once made yourself.

You might also discuss how a research question changed your understanding of a disease, why presenting the work taught you to communicate more clearly, or how working with graduate students helped you decide whether a research-centered career was right for you.

The AAMC recommends considering the impact you made, what you learned, the transformative nature of the experience, and the personal growth that occurred when choosing Most Meaningful activities.

When I applied to medical school, my research assistant experiences were one of my most meaningful ones and I ended up expanding on my experience description to fully capture what I learned from it. I highly recommend research if this is something you are interested in!

Does Research Have to Be Medical?

Research does not have to be directly related to medicine to be valuable on a medical school application.

Research in biology, chemistry, neuroscience, psychology, sociology, public health, engineering, physics, mathematics, environmental science, anthropology, economics, education, and many other disciplines can help you develop scientific reasoning and transferable skills.

The AAMC specifically notes that research experience can be useful in any discipline because it supports critical thinking, quantitative reasoning, scientific reasoning, teamwork, and communication.

A medical topic may make the connection to your future goals easier to explain, but admissions committees understand that undergraduates are limited by the opportunities available at their institutions.

Meaningful environmental research in which you remained involved for three years, developed an independent project, and presented your findings may be more valuable than briefly joining a cancer laboratory only because the topic sounded medically impressive.

The quality of the mentorship, depth of your involvement, and growth of your responsibilities usually matter more than whether the project title contains the name of a disease.

Basic Science Research Versus Clinical Research

Basic science research investigates biological, chemical, molecular, cellular, physiological, or physical mechanisms. It may involve cell cultures, animal models, tissue samples, proteins, genes, chemical reactions, or computational models.

Clinical research studies human health and disease through approaches such as clinical trials, medical record reviews, participant interviews, diagnostic testing, observational studies, and outcomes research.

Neither type is automatically better for medical school.

Basic science may give you deeper exposure to laboratory methods, experimental design, biological mechanisms, and the long process through which discoveries move toward clinical use.

Clinical research may allow you to observe how studies operate in healthcare settings and how participant recruitment, informed consent, follow-up, regulatory requirements, and real-world patient circumstances affect research.

Public health, epidemiology, quality improvement, health services research, and computational projects can also be valuable because they help you understand disease at the population or systems level.

Choose the area that genuinely interests you and offers strong mentorship rather than assuming that one label will impress every admissions committee.

Can Research Help You With the MCAT?

Research can help with certain skills tested on the MCAT, particularly experimental reasoning, data interpretation, graphs, study design, and understanding the purpose of controls.

The MCAT frequently asks students to interpret unfamiliar experiments rather than merely recall a fact. You may need to identify the independent variable, determine which result supports a hypothesis, understand why a control was included, or interpret what a graph shows.

Students who have spent substantial time discussing experiments may feel more comfortable approaching those passages because the structure of the reasoning is familiar.

Research can also reinforce scientific concepts related to the field in which you work. A biochemistry research assistant may repeatedly encounter proteins, enzymes, molecular pathways, and laboratory techniques, while a psychology research assistant may become more comfortable with study design and behavioral data.

However, research does not replace MCAT preparation. Your laboratory may focus deeply on one small area while the MCAT tests material across biology, chemistry, physics, biochemistry, psychology, sociology, and critical analysis.

The benefit is more likely to appear in the way you interpret experiments and reason through data than in broad content coverage.

You can find my free MCAT guides, study tools, and resources on the AspiringMD MCAT resource page.

Can Research Lead to Posters, Presentations, and Publications?

Research can lead to posters, oral presentations, abstracts, manuscripts, and publications, although none of these outcomes is guaranteed.

In my case, the experience allowed me to attend conferences for both poster and oral presentations, and the work eventually contributed to a journal publication.

Presentations were valuable because they required me to explain the project to people who were not present for every experiment. I had to determine which details mattered, create understandable visuals, and respond to questions about our methods, interpretation, and limitations.

Publications can be exciting because they represent a formal contribution to the scientific literature. However, the timeline is often outside an undergraduate student’s control.

A project may take several years to complete. A manuscript may go through multiple rounds of revision. The laboratory may change direction, funding may end, or another project may become a higher priority.

You should never assume that joining a laboratory for one semester will produce a publication. You should also be cautious when a program promises authorship before you have even begun the work.

Authorship should reflect a meaningful intellectual or practical contribution to the project and manuscript. Simply performing one routine task does not always justify being listed as an author.

A research experience can still be strong without a publication. Admissions committees understand that students have limited control over laboratory timelines and final outputs.

When you do present your research, my Presentations and Posters AMCAS Experience Description Guide explains when to create a separate AMCAS entry and how to describe your role accurately.

My guide on how to write a research publication also walks through the broader publication process.

How Long Should You Stay in a Research Laboratory?

There is no required number of semesters, but longer involvement often creates more meaningful opportunities.

During the first several months, you may spend most of your time completing training, learning laboratory procedures, reading background literature, and assisting with routine responsibilities.

It takes time for a mentor to trust you with valuable samples, expensive equipment, participant information, or greater independence.

When you remain for multiple semesters, you can begin seeing how individual experiments connect to the larger research question. You may participate in troubleshooting, data analysis, presentations, manuscript preparation, and the training of new students.

Research on undergraduate experiences has found that students in multi-year research positions often report different and more advanced gains than newer students because their roles become more independent and intellectually demanding over time.

A single summer can still be valuable, particularly when it is an intensive full-time program. However, a summer becomes even more meaningful when you continue the project remotely, return the following year, or bring the skills back to a long-term laboratory at your home institution.

You do not need to remain in an unhealthy or poorly mentored environment merely to demonstrate commitment. If the laboratory consistently ignores safety, treats students disrespectfully, provides no meaningful supervision, or prevents you from growing, it may be appropriate to find a better opportunity.

Summer Research Programs and REUs

Summer research programs can be excellent opportunities for premed students because they allow you to participate in research full time without balancing a normal course schedule.

The National Science Foundation’s Research Experiences for Undergraduates program supports active undergraduate participation in research across NSF-funded scientific fields. Students apply directly to individual REU sites, and funded participants generally receive stipends, with many programs also providing assistance for housing, meals, or travel.

During college, I participated in summer research experiences at universities other than my home institution. These programs exposed me to different laboratory environments, research techniques, mentors, and approaches to scientific questions.

I was also able to meet MD/PhD physician-scientists and learn more about how research could be combined with medicine. When I returned to my home laboratories, I could bring back new skills and perspectives that helped me contribute in different ways.

A summer research program may culminate in a poster session or oral presentation, which gives you experience communicating a project within a limited period.

These programs can be especially valuable when your home institution has limited research opportunities, when you want to explore a different area, or when you are considering graduate or MD/PhD training.

You do not need to attend a famous institution for the experience to be worthwhile. A well-mentored program at a regional university can be more valuable than a prestigious program where you receive little guidance or meaningful responsibility.

Use my Premed Summer Programs and Research Experiences Database to compare structured programs, eligibility requirements, research areas, funding, and other benefits.

I also have a guide to summer research programs and REUs for premed students and a database of premed scholarships and paid research internship programs.

How Do You Become a Research Assistant?

The process differs among universities and laboratories, but most undergraduate research assistants find positions by contacting faculty members directly, applying through an undergraduate research office, enrolling in a research course, or participating in a structured summer program.

Begin by Identifying Your Interests

You do not need to know exactly what you want to study for the rest of your life. You should, however, have enough interest in the laboratory’s general area to remain engaged while learning unfamiliar material.

Look through your university’s biology, chemistry, neuroscience, psychology, public health, engineering, and medical school faculty pages. Read the short descriptions of each professor’s work and identify several laboratories that genuinely interest you.

You do not need to understand every word of a technical research summary. Try to identify the broad question, the system being studied, and why the work matters.

Read About the Professor’s Work

Before contacting a professor, read the laboratory website and at least one recent abstract or publication.

Your goal is not to become an expert before sending an email. You are trying to understand enough to explain why you are interested in that specific laboratory rather than sending the same generic message to dozens of faculty members.

A sentence that refers to a particular research question or recent paper will usually be much stronger than saying you are “passionate about science and medicine.”

Send a Thoughtful Email

Your email should introduce who you are, explain why the laboratory interests you, briefly mention relevant coursework or experience, state what you hope to learn, and provide your availability.

You can attach a concise résumé or CV. My free CV template for undergraduate and medical students can help you organize your coursework, employment, research, service, and academic experiences.

Professors receive many emails, so a lack of response does not necessarily mean you are unqualified. Send a polite follow-up after a reasonable period and continue contacting other laboratories.

My guide on how to email a professor about research includes a complete strategy for approaching faculty members without making the email feel generic or transactional.

Ask Professors You Already Know

You may already know a potential research mentor through a course, office hours, SI sessions, or a TA relationship.

Professors often prefer working with students who have already demonstrated curiosity, reliability, and strong academic performance.

Even when the professor does not have space in their own laboratory, they may know another faculty member who is looking for an undergraduate assistant.

Use Your Undergraduate Research Office

Many universities have an undergraduate research office that maintains project databases, offers introductory workshops, funds student assistants, and helps students identify mentors.

These offices may also provide small research grants, conference travel funding, summer fellowships, poster-printing support, or academic credit.

Start Before You Feel Completely Ready

Many students assume they need prior research experience before they can join a research laboratory. That creates an impossible cycle because the purpose of an entry-level position is to help you gain that experience.

You should be honest about your current skills while showing that you are willing to learn. A professor may value reliability, curiosity, and consistent availability more than one advanced technique listed on your résumé.

The first position is usually the hardest to obtain. Once you have laboratory experience and a mentor who can recommend you, future programs become easier to pursue.

How Much Do Undergraduate Research Assistants Get Paid?

Undergraduate research assistant compensation varies considerably. Some positions are paid hourly, some provide a semester or summer stipend, some offer academic credit, and others are unpaid volunteer opportunities.

MOST opportunities are volunteer and you do them to get research experience! Most of the paid positions are through REU’s and summer research programs which pay a flat-rate stipend. DO NOT do this just for the money and I suggest you do it as a learning experience and because you enjoy it.

Based on official university information available in July 2026, many paid undergraduate research positions fall somewhere around $12 to $22 per hour, although rates can be lower or higher depending on location, experience, available grants, work-study eligibility, and the technical demands of the position.

These examples should not be treated as a guaranteed national pay scale. Individual laboratories may pay different rates, and some research positions depend on grants or federal work-study funding.

Summer research programs are often funded through a fixed stipend rather than an hourly wage. The stipend is intended to support you while you work full time for eight to ten weeks, and some programs also include housing, meals, or travel.

You should calculate the practical value of the offer rather than comparing the stipend number alone. A program offering a smaller stipend with free housing may be more affordable than a higher-paying program in an expensive city where you must pay rent.

Do Research Assistants Always Get Paid?

No. Undergraduate research assistants may receive pay, academic credit, a stipend, volunteer hours, or some combination of these arrangements.

Universities may allow students to enroll in an independent research course while working in a laboratory. This can help you receive formal recognition for your time and may allow the experience to contribute toward your degree.

Paid positions are often dependent on the professor’s grant funding, departmental support, work-study programs, or university fellowships.

A professor may want to pay an undergraduate but simply lack funding at that time. You should not assume that an unpaid position means the mentor does not value your contribution.

At the same time, unpaid research can create real financial barriers. Students who need employment should not feel guilty for prioritizing paid opportunities.

My summer research experiences were especially helpful because structured programs often provide funding that allows students to focus on research without needing a second job.

When discussing a position, ask whether pay, credit, or future funding is available. You should also clarify the expected number of hours, because an unpaid five-hour weekly learning experience is very different from being expected to perform nearly full-time skilled work without compensation.

Does Being Paid Make Research Less Meaningful?

Being paid does not make research less meaningful.

Medical schools understand that students need income and that unpaid opportunities are not equally accessible to everyone. A paid research assistant still develops scientific reasoning, teamwork, reliability, technical skills, and mentorship relationships.

You should report compensation honestly, but you do not need to apologize for receiving it.

In fact, a paid position may carry additional expectations involving scheduled hours, documentation, productivity, and professional accountability.

The important questions are what you contributed, what you learned, and how the experience influenced your development.

YouTube Videos About Undergraduate Research Experiences

Reading a description of undergraduate research can help you understand the responsibilities, but watching students discuss or demonstrate their experiences can give you a better sense of what research looks like from day to day.

A Day in the Life of an NSF REU Researcher

The video A Day in the Life of an Undergraduate Researcher follows students participating in a Cornell University and Boyce Thompson Institute NSF Research Experience for Undergraduates program.

This is a useful example of what an intensive summer program may look like, including time in the laboratory and the broader community that develops among student researchers.

Day in the Life of a Creighton Student Researcher

Creighton University’s short video Day in the Life: Creighton Student Researcher provides a brief look at an undergraduate student participating in university research.

Although the video is short, it can help students visualize how research fits into an ordinary college environment rather than viewing it as something reserved only for graduate students.

Undergraduate Biochemistry Research Vlog

The University of North Texas video Day in the Life of a Biochemistry Student: Undergraduate Research Vlog provides a student-centered look at undergraduate biochemistry and research.

This may be particularly helpful for premed students considering basic science laboratories in biology, chemistry, or biochemistry.

A Student’s Day in an Undergraduate Research Laboratory

The video Day in the Life of an Undergraduate Research Student follows an undergraduate through a real research day and provides a more personal view of the routines involved.

Individual experiences vary, but videos like this can help you see that research includes preparation, routine laboratory work, troubleshooting, documentation, and communication rather than constant dramatic discoveries.

How a Premed Student Found Research Without Prior Experience

The video How I Got a Research Position With No Experience discusses strategies for obtaining research in a competitive premedical environment.

This can be useful when you are interested in research but feel discouraged because every opening seems to request experience you have not had a chance to obtain yet.

How to Cold Email Professors for Research

The video How to Land an Undergraduate Research Position With No Experience discusses how one student used cold emails to contact professors and secure research opportunities.

The specific email style should always be adapted to your institution and interests, but hearing another student explain the process can make the first outreach feel less intimidating.

These videos represent individual experiences rather than universal descriptions of research. Every laboratory has a different culture, schedule, mentoring structure, and set of responsibilities.

Research Assistant Versus TA or SI Leader

Research assistant, teaching assistant, and Supplemental Instruction positions can all help a medical school application, but they demonstrate somewhat different strengths.

A research assistant may develop a particularly strong understanding of scientific uncertainty and evidence. A TA or SI leader may have more frequent direct responsibility for teaching and supporting students.

You do not need to complete every role. Choose experiences that align with your interests and allow you to remain involved long enough to make a meaningful contribution.

Read my guides on whether being a TA is helpful for medical school and whether being an SI leader is helpful for medical school to compare the opportunities more closely.

What Are the Potential Downsides of Research?

Research can be extremely valuable, but it is not always enjoyable or well managed.

Progress Can Be Slow

Research often moves much more slowly than students expect.

You may spend several weeks learning a technique and several more trying to make it reliable. A project can remain in the data-collection stage for months, and a paper may not be submitted until long after you graduate.

You need enough patience to find meaning in the process rather than relying entirely on quick outcomes.

Some Tasks Are Repetitive

Every research project includes work that is less exciting than presenting at a conference.

You may spend hours cleaning data, labeling samples, preparing solutions, coding responses, reviewing charts, or repeating the same procedure.

These tasks still matter, but you should enter research with realistic expectations. The experience is not a constant series of breakthroughs.

Mentorship Quality Varies

A strong mentor can transform your undergraduate experience, while poor mentorship can make research feel confusing and isolating.

Some laboratories have excellent systems for training undergraduates, providing feedback, discussing the scientific question, and increasing responsibility over time.

Other laboratories may treat undergraduates primarily as inexpensive labor without explaining how their tasks connect to the larger project.

Before joining, ask how undergraduates are trained, who will supervise you, whether students attend laboratory meetings, and what previous undergraduates have accomplished.

Laboratory Culture Matters

A prestigious laboratory is not worth sacrificing your safety, mental well-being, or academic performance.

Pay attention to how the professor and senior members speak to students. Notice whether mistakes are treated as learning opportunities or reasons for humiliation.

A good laboratory can be demanding while still being respectful. High expectations do not require a toxic environment.

Research Can Compete With Your Grades

Laboratory work can expand beyond the hours you originally expected, particularly when experiments cannot be paused at a convenient time.

You may need to return in the evening, work around a time-sensitive procedure, or complete data collection before a deadline.

You should be honest with your mentor about your availability and protect your coursework. A research experience that causes a major decline in your science GPA may not be a worthwhile tradeoff.

Publications Are Not Guaranteed

You can perform excellent work and still graduate without a publication because the project timeline, journal process, and final authorship decisions are not completely within your control.

Do not choose a laboratory solely because someone suggests that a publication is guaranteed.

Look for strong mentorship, meaningful learning, and increasing responsibility. Scholarly products are valuable when they occur, but they should not be the only reason you participate.

How to Recognize a Good Undergraduate Research Laboratory

A good laboratory should provide clear expectations, appropriate training, regular supervision, and a gradual path toward greater responsibility.

You should understand who will train you, how many hours you are expected to work, whether the position is paid or for credit, and what tasks you will initially perform.

The mentor should be able to explain the broad research question and how your work contributes to it. You may not understand every technical detail at first, but you should not feel that your role is intentionally mysterious.

Good laboratories also take safety and research ethics seriously. You should receive proper training before working with chemicals, biological materials, animals, patient information, or specialized equipment.

Ask whether undergraduates attend meetings, present their work, contribute to posters, and remain in the laboratory for multiple semesters. Past student experiences can tell you a great deal about whether the laboratory actually supports undergraduate development.

You may also ask whether you can speak with a current undergraduate or graduate student before committing. They can provide a realistic description of the laboratory culture and daily responsibilities.

How to Make Your Research Experience More Valuable

The best way to strengthen your research experience is to become genuinely engaged with the project rather than focusing only on accumulating hours.

Read background papers and ask questions about why the project matters. Try to understand the purpose of each technique instead of memorizing the sequence of steps.

Keep careful notes about what you did, what changed, and what you learned. Laboratory records should follow your mentor’s requirements, but you may also maintain a separate reflection log without including confidential data.

As your skills improve, ask whether you can take responsibility for a defined part of the project. You might analyze one dataset, optimize one technique, create a figure, conduct a literature review, or prepare a brief presentation for a laboratory meeting.

Volunteer to present your progress. Explaining the project will reveal gaps in your understanding and help you become more comfortable receiving questions.

When new students join, help them feel welcome and teach them what you have learned. Mentoring another student demonstrates leadership and often deepens your own understanding.

You should also discuss your long-term goals with your mentor. They may know about summer programs, scholarships, conference funding, graduate programs, MD/PhD opportunities, or collaborators who could help you develop additional skills.

Does Research Replace Clinical Experience?

No. Research generally does not replace clinical experience.

Basic science research may involve diseases, medications, or biological mechanisms, but you are not necessarily interacting with patients or observing how healthcare is delivered.

Clinical research may provide patient exposure when you regularly recruit, consent, interview, examine, or conduct study visits with participants. However, the amount and quality of that interaction vary significantly.

You still need experiences that help you understand the daily realities of medicine and confirm that you want to care for patients.

Research and clinical experience answer different questions. Research helps demonstrate that you understand scientific inquiry and evidence, while clinical experience helps demonstrate that you understand the environment, responsibilities, and human relationships involved in healthcare.

A balanced applicant may have both, but the ideal amount of each depends on the student’s goals and the missions of the medical schools being considered.

Does Research Replace Community Service?

Research does not usually replace community service.

Even when your project addresses an important disease or public health problem, your primary role may still involve generating knowledge rather than directly serving a community.

Community-engaged research can include substantial service and partnership, but you should describe the responsibilities accurately rather than assuming every research project counts as volunteering.

Medical schools may value research and service for different reasons, so most applicants should continue building meaningful service experiences outside the laboratory.

Frequently Asked Questions

Is being a research assistant good for medical school?

Yes. Being a research assistant can strengthen a medical school application by demonstrating intellectual curiosity, scientific reasoning, critical thinking, persistence, teamwork, communication, attention to detail, and comfort with uncertainty.

Is research required for medical school?

Research is not a universal requirement for admission to medical school. However, it is common among applicants to research-intensive medical schools and may be particularly important for MD/PhD programs.

Does undergraduate research look good on AMCAS?

Yes, particularly when the experience was sustained, involved meaningful responsibilities, and gave you something specific to discuss about scientific reasoning, mentorship, teamwork, failure, or growth.

What AMCAS category should a research assistant use?

Most research assistant positions belong under Research/Lab. Paid Employment – Not Medical/Clinical may be reasonable when the employment aspect is central, but Research/Lab usually describes the primary purpose more accurately.

Can research be a Most Meaningful AMCAS activity?

Yes. Research can be a strong Most Meaningful selection when it significantly influenced your intellectual development, career goals, mentorship, understanding of medicine, or ability to work through uncertainty.

Does research have to be medically related?

No. Research in any discipline can be valuable when it involves meaningful inquiry, analysis, teamwork, and intellectual growth.

Is basic science or clinical research better for medical school?

Neither is automatically better. Basic science provides strong exposure to experimental mechanisms and laboratory methods, while clinical research may show how studies operate in patient-care environments. Choose the opportunity that offers genuine interest, strong mentorship, and substantial involvement.

Does research count as clinical experience?

Not automatically. Research counts as clinical exposure only when your responsibilities include meaningful interaction with patients or study participants.

Does research count as volunteering?

An unpaid research role may technically be volunteer work, but Research/Lab is usually the more accurate AMCAS category because it describes the activity’s primary purpose.

Do you need a publication for medical school?

No. Publications are valuable but not required. Admissions committees understand that undergraduates often have limited control over project and publication timelines.

How many research hours do you need for medical school?

There is no universal required number. Consistency, responsibility, contribution, and reflection are more meaningful than reaching an arbitrary hour total.

How long should you stay in a research laboratory?

Remaining for at least several semesters often provides more opportunities for independence, presentations, mentorship, and leadership. However, an intensive summer program can also be valuable.

Can research help you get a strong letter of recommendation?

Yes. A long-term research mentor may be able to write a detailed letter about your curiosity, resilience, teamwork, communication, reliability, and growth.

Can research help with the MCAT?

Research can strengthen experimental reasoning, graph interpretation, data analysis, and understanding of study design. It does not replace formal MCAT content review or practice.

Can a research assistant become a project leader?

Yes. Experienced undergraduate assistants may eventually coordinate part of a project, propose follow-up experiments, present findings, train newer students, or take ownership of a defined research question.

Can research help you decide whether to pursue an MD/PhD?

Yes. Sustained research is one of the best ways to understand whether you genuinely enjoy the day-to-day process of scientific investigation enough to make it a central part of your career.

How much do undergraduate research assistants make?

Current official university examples vary considerably, but many paid positions fall between approximately $12 and $22 per hour. Some universities pay more, while other positions provide academic credit or a summer stipend.

Are REU programs good for premed students?

Yes. REUs and similar summer programs can provide intensive research, mentorship, presentations, funding, and exposure to graduate or MD/PhD careers.

What happens when an experiment fails?

You review the method, evaluate possible sources of error, discuss the result with the team, revise the approach, and document what you learned. Learning how to respond constructively to failed experiments is one of the most valuable parts of research.

Helpful Official Research Resources

The AAMC guide to getting research experience explains how research can support medical school preparation and help students explore medical and scientific careers.

The AAMC Premed Competencies describe scientific inquiry, critical thinking, quantitative reasoning, teamwork, communication, reliability, and other competencies that research can help you develop.

The National Science Foundation REU page for students explains eligibility and how undergraduates can apply directly to funded research sites.

The NSF Research Experiences for Undergraduates program page provides information about REU sites and the purpose of the program.

The NIH-hosted Survey of Undergraduate Research Experiences examines the educational and career benefits students reported after undergraduate research.

The NIH-hosted study Undergraduate Research Experiences Support Science Career Decisions and Active Learning discusses reported gains in technical and personal skills among undergraduate researchers.

The article The Benefits of Multi-Year Research Experiences examines how the experiences and perceived gains of longer-term undergraduate researchers may differ from those of newer students.

Final Thoughts: Is Being a Research Assistant Worth It for Premed Students?

For many premed students, becoming a research assistant is absolutely worth considering.

Research allows you to show intellectual curiosity, learn how evidence is created, become more comfortable with uncertainty, develop teamwork and communication skills, and build a sustained relationship with a mentor.

My own research experience was one of the most valuable parts of college. I worked in two basic science laboratories for multiple years, participated in summer research programs at other universities, presented posters and oral talks, contributed to a journal publication, explored MD/PhD careers, and worked alongside undergraduate students, master’s students, PhD students, and faculty researchers.

The experience taught me how to design experiments and how to continue when those experiments did not work. It also helped me see failure differently. An unsuccessful result was not always the end of the project. It was often information that allowed us to improve the next experiment.

Over time, I was able to accept greater responsibility, contribute ideas, work more independently, and help younger students entering the laboratory. Those opportunities allowed me to demonstrate leadership and mentoring in addition to scientific ability.

My mentors also became some of my strongest medical school letter writers because they had known me for years and had observed far more than my academic performance. They had seen how I approached difficult problems, responded to feedback, worked with a team, communicated scientific ideas, and grew through repeated trial and error.

A poster, presentation, or publication can certainly strengthen the experience, but those outcomes are not what make research valuable by themselves.

The most important part is learning how to ask a meaningful question, investigate it carefully, interpret the evidence honestly, and continue working when the answer is not immediately clear.

Those are skills that will remain valuable long after your final undergraduate experiment, whether you eventually become a physician-scientist, participate in clinical research, teach at an academic medical center, or use medical literature to make better decisions for your patients.