Research Program
***Disclaimer: Information is subject to change. Please check with individual programs to verify application deadlines.***
Want more information about predoc and premed summer research programs, including program eligibility and application requirements? Download our chart to get all the details!
Attending a summer research program isn’t your only option when looking to bulk up your research experience . Here are four additional tips on securing the best research opportunity for you.
Gaining research experience – in a summer research program or any of the other options above – won’t just make you a more competitive school applicant; it will also help you sharpen your critical thinking skills and give you training you can draw on as a student and in your future career.
For personalized guidance for your admissions journey, check out our Medical School Consulting Services or Grad School Consulting Services . Whether you were rejected and looking to reapply or you’re still in college and just getting started, we’re here to help. Choose the service that best fits your needs and connect with an advisor who will take you through the admissions process step-by-step.
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The Travelers Summer Research Fellowship Program is designed to provide 25-27 premedical students with experiential research training, meaningful insights into the field of medicine, and enhanced knowledge of the conditions and policies impacting the health of traditionally underserved populations. By engaging in laboratory or clinical research, under the supervision of a faculty member, the T-SRF participants learn how to investigate a specific research question. Participants are thereby provided with a research training experience allowing them to acquire investigative techniques that can be later applied as they pursue their medical education. The didactic curriculum has several themes. There are content delivery around common public health issues including healthcare for the under and uninsured; healthcare disparities; research basics; a financial aid presentation and practical advice from medical students on the medical school application process and preparing for the MCAT. In addition to these, participants engage with a wide variety of physicians in career panel discussions including primary care, pediatrics, neurology, ophthalmology, obstetrics and gynecology, surgery, radiology, emergency medicine, and internal medicine. The highlight of the curriculum is a panel discussion populated by diversity and admissions deans from NY medical schools addressing the question “What are medical schools looking for?”
With the resumption of in-person program in 2022, the program also provides each participant with an opportunity to shadow a physician. As research training is the primary mission of the program, shadowing opportunities are limited.
*Please note that COVID-19 vaccination is required for participation in the summer program.*
The T-SRF 202 4 application cycle is closed. Please revisit our website in mid- Fall 202 4 for application information on T-SRF 202 5 .
How to apply:
For further information, please contact [email protected] .
Joy D. Howell, M.D., FAAP, FCCM Assistant Dean for Diversity and Student Life Vice Chair for Diversity in Pediatrics Professor of Clinical Pediatrics 445 East 69th Street, Room 110 New York, NY 10021 [email protected]
T-srf 50th anniversary celebration.
On Saturday, October 6, 2018, The Office of Student Diversity hosted the 50th Anniversary Celebration for the Travelers Summer Research Fellowship Program for Premedical Students (T-SRF). We welcomed back all previous directors of the program: Dr. James Curtis; Dr. Bruce Ballard; Dr. Carlyle Miller, and Dr. Joseph Murray. Approximately 200 guests registered for the event, the majority being T-SRF participants. Many alumni of the medical college and members of the Weill Cornell community also participated in the day’s events. As guests entered Belfer’s Skylight Lounge for brunch, they were greeted by the sounds of Music in Medicin e’s Jazz Ensemble.
The next portion of the program was held in the Uris Auditorium. There Dean Augustine M.K. Choi, M.D. gave the Welcome address. He presented Dr. Elizabeth Wilson-Anstey with the honor of having an annual lecture during Diversity Week in her name. Dr. James L. Curtis, the first Director of the T-SRF program, was the Keynote Speaker. His topic was “ Celebrating 50 Years of Affirmative Action in Medicine at Weill Cornell Medicine” . The program included important topics such as the Effectiveness of the T-SRF Program, 1969 – 2015; Diversity at Weill Cornell Medicine; Healthcare and Healthcare Disparities; and Social Activism, Outreach, and Awareness among Medical Students. Each former T-SRF Director was given a clock to symbolize how the T-SRF program has withstood the test of time. We closed with a beautiful rendition of “ Heal our Land” sung by WCM’s very own, Ms. Sharon Brooks.
The evening was capped off by a cocktail reception in the Griffis Faculty Club. There folks were able to talk about the presentations, take photos, and make plans for future engagement with the T-SRF program. Overall the event was a great success. We look forward to more opportunities to reunite those who have benefited from the program and opportunities to share those benefits with the next generation of students coming from backgrounds underrepresented in medicine.
Office of Admissions 445 East 69th Street Room 104 New York, NY 10021 (646) 962-4931 [email protected]
Office of Medical Education 1300 York Avenue, Room C-118 New York, NY 10065 (212) 746-1050
New section.
Listing of summer programs for undergraduates interested in pursuing careers in medical research. Please contact programs directly regarding summer research opportunities.
Albert Einstein College of Medicine Bronx, NY Summer Undergraduate Research Program
Augusta University -The Graduate School & Medical College of Georgia Augusta, GA Summer Student Training and Research (STAR)
Baylor College of Medicine Houston, TX Summer Medical and Research Training (SMART) Program
Big Ten Academic Alliance Champaign, IL Summer Research Opportunities Program
Boston University School of Medicine Boston, MA Summer Training as Research Scholars (STaRS)
Brigham and Women's Hospital (in collaboration with Harvard-affiliated hospitals) Boston, MA Harvard Summer Research Program in Kidney Medicine
Brown University Providence, RI Leadership Alliance Summer Research-Early Identification Program
Case Western Reserve University Cleveland, OH Heart, Lung and Blood (HLB) Summer Research Program Cancer-focused Summer Undergraduate Research (CanSUR) Program
Children's Hospital of Philadelphia Philadelphia, PA CHOP Research Institute Summer Scholars Program (CRISSP)
Children's Hospital Research Foundation of Cincinnati Cincinnati, OH Division of Developmental Biology Undergraduate Summer Student Program
City of Hope National Medical Center and Beckman Research Institute Duarte, CA Eugene and Ruth Roberts Summer Student Academy
Cohen Children's Medical Center Queens, NY Summer Internship Programs
Creighton University Omaha, NE Undergraduate Biomedical Research Training Program
Dell Medical School - The University of Texas at Austin Austin, TX Dell Medical School’s LIVESTRONG Cancer Institutes’ Summer Undergraduate Research Fellowship (SURF)
Drexel University College of Medicine Philadelphia, PA Biomedical Graduate Studies-Summer Undergraduate Research Fellowship STAR SCHOLARS Summer Undergraduate Research Fellowship
Duke University School of Medicine Durham, NC Biomedical PhD Programs
East Carolina University Brody School of Medicine Greenville, NC Summer Biomedical Research Program
Eastern Virginia Medical School Norfolk, VA Summer Program for Undergraduate Research (SPUR)
Emory University School of Medicine Atlanta, GA Summer Undergraduate Research Experience (SURE)
Georgia State University, Neuroscience Institute Atlanta, GA B&B Summer Scholars Program
George Washington University Washington, DC GW Summer Program Advancing Research on Cancer GW SPARC
Gerstner Sloan-Kettering Graduate School New York, NY Gerstner Sloan Kettering Summer Undergraduate Research Program Memorial Sloan Kettering Cancer Center- Summer at MSK
Harvard Medical School Boston, MA Summer Honors Undergraduate Research Program (SHURP)
Hofstra North Shore/LIJ School of Medicine Feinstein Institute for Medical Research Student Intern Program
Icahn School of Medicine at Mount Sinai New York, NY Summer Undergraduate Research Program (SURP)
Indiana University School of Medicine Indianapolis, IN Indiana University School of Medicine Student Research Programs
Johns Hopkins University School of Medicine Baltimore, MD Summer Internship Program (SIP)
Keck Graduate Institute Claremont, CA Summer Undergraduate Research Experience (SURE) Program
Keck School of Medicine of the University of Southern California Los Angeles, CA Bridging the Gaps
Loma Linda University School of Medicine Loma Linda, CA Summer Undergraduate Research Fellowship
Louisiana State University Health Sciences Center New Orleans, School of Graduate Studies New Orleans, LA LSUHSC New Orleans, Summer Research Internship Program
Louisiana State University Health Sciences Center Shreveport Department of Pharmacology, Toxicology and Neuroscience Shreveport, LA LSUHSC New Orleans, Summer Research Internship Program
Loyola University Chicago, Stritch School of Medicine Undergraduate Summer Research Program, Department of Microbiology & Immunology Summer Undergraduate Research program, Department of Molecular Pharmacology and Therapeutics
Marshall University Joan C. Edwards School of Medicine Huntington, WV Summer Research Internship for Minority Students
Maine Medical Center Research Institute Scarborough, ME Summer Student Research Program at Main Medical Center Research Institute
Massachusetts General Hospital Multicultural Affairs Office Boston, MA Summer Research Trainee Program
Mayo Clinic Rochester, MN Summer Undergraduate Research Fellowship
Medical College of Wisconsin Milwaukee, WI Summer Program for Undergraduate Research Student-centered Pipeline to Advance Research in Cancer Careers (SPARCC)
Medical University of South Carolina Charleston, SC MUSC Summer Undergraduate Research Program
Memorial Sloan-Kettering Cancer Center New York, N.Y. Summer Undergraduate Research Program (SURP) Medical Student Summer Fellowship Research Program Molecular Imaging Summer Program (MISP)
Minneapolis Heart Institute Foundation Minneapolis, MN Summer Research Internships in Clinical Cardiology
Icahn School of Medicine Mount Sinai New York, NY Summer Undergraduate Research Program
National Institutes of Health Bethesda, MD Summer Internship Program in Biomedical Research
New York University School of Medicine New York, NY Summer Undergraduate Research Program
Northwestern University Feinberg School of Medicine Evanston, IL Summer Research Opportunity Program Continuing Umbrella of Research Experience Cancer-Focused Undergraduate Research Experience (CURE) Pre-Med Undergraduate Intern Program
Oregon Health and Science University Portland, OR Summer Research Programs
Penn State University, College of Medicine Hershey, PA SURIP – Summer Undergraduate Research Internship Program STEP-UP - Short-Term Educational Program for Underrepresented Persons SURF – American Heart Association Summer Undergraduate Research Fellowship
Rutgers Robert Wood Johnson Medical School New Brunswick, NJ Summer Undergraduate Research Program in Neuroscience Summer Undergraduate Research Program Summer Undergraduate Research Program (SURP) in Molecular and Developmental Neurobiology
Rutgers, New Jersey Medical School Newark, NJ Summer Undergraduate Research Program
Stanford University School of Medicine Stanford, CA Stanford Summer Research Program (SSRP)/Amgen Scholars Stanford CARE Scholars
State University of New York Upstate Medical University Syracuse, NY Summer Undergraduate Research Fellowship Program (SURF) Summer Undergraduate Research Fellowship Physician Scientist Program (SURF-PS)
Stony Brook University School of Medicine Stony Brook, NY Summer Undergraduate Research Fellowship (SURF) Program
Texas A&M University College of Medicine Bryan, TX Summer Undergraduate Research Program
Texas Tech University Health Sciences Center Graduate School of Biomedical Sciences Lubbock, TX Summer Accelerated Biomedical Research Program Amarillo Biomedical Research Internship
The Broad Institute of MIT and Harvard Cambridge, MA Summer Research Programs
The George Washington University Washington, DC GW Summer Program Advancing Research on Cancer (GW SPARC)
The Jackson Laboratory for Genomic Medicine Farmington, CT Summer Undergraduate Research Program
The Rockefeller University New York, NY The Rockefeller University Summer Undergraduate Research Fellowship (SURF) Program
Thomas Jefferson University Philadelphia, PA Jefferson College of Life Sciences-Summer Undergraduate Research Programs
Tufts University Boston, MA Graduate School of Biomedical Sciences Summer Research Program
University of Alabama at Birmingham Birmingham, AL Summer Research Programs for Undergraduates
University of Arizona Tucson, AZ Summer Undergraduate Research Program BLAISER Program
University of Arkansas for Medical Sciences College of Medicine Little Rock, AR INBRE Mentored Summer Research Program SURP: Summer Undergraduate Research Program to Increase Diversity in Research
University at Buffalo (SUNY) School of Medicine and Biomedical Sciences Buffalo, NY Summer Undergraduate Research Experience (SURE)
University of California, Irvine, School of Medicine Irvine, CA Summer Undergraduate Research Program SURF- Summer Undergraduate Research Fellowship
University of California, Los Angeles Los Angeles, CA Summer Programs for Undergraduate Research
University of California, San Diego La Jolla, CA UCSD Academic Enrichment Programs Summer Research Program (SRP)
University of California, San Francisco San Francisco, CA Summer Research Training Program
University of Chicago Chicago. IL The Leadership Alliance & The University of Chicago Summer Research Early Identification Program The Pritzker School of Medicine Experience in Research (PSOMER)
University of Cincinnati College of Medicine Cincinnati, OH Summer Undergraduate Research Fellowship (SURF)
University of Colorado School of Medicine Denver, CO Summer Research Programs
University of Connecticut Health Center Farmington, CT Undergraduate Summer Research
University of Florida College of Medicine Gainesville, FL UF Center for Undergraduate Research
University of Georgia Biomedical and Health Sciences Institute Summer Undergraduate Fellows
University of Hawaii, John A. Burns School of Medicine Honolulu, HI High School and Undergraduate Opportunities in Research
University of Illinois at Chicago Chicago, IL Summer Research Opportunities Program (SROP) Summer Undergraduate Research Fellowship (SURF) Program
University of Iowa Roy J. and Lucille A. Carver College of Medicine Iowa City, IA Biomedical Scholars Summer Undergraduate Research Program Summer Undergraduate MSTP Research Program
University of Kansas Lawrence, KS Summer Undergraduate Research Programs
University of Kansas School of Medicine Kansas City, KS Summer Research Training Program (SRTP) Summer Training Option in Rural Medicine (STORM)
University of Kentucky Lexington, KY NSF-REU: Summer Program in the Biomedical Sciences
University of Louisville School of Medicine Louisville, KY Cancer Biology Training Program
University of Maryland School of Medicine Baltimore, MD University of Maryland Scholars Summer Research Program (UM Scholars)
University of Massachusetts Medical School Worcester, MA Summer Undergraduate Research Program
University of Miami Leonard M. Miller School of Medicine Miami, FL Summer Undergraduate Research Fellowship (SURF)
University of Michigan Ann Arbor, MI Undergraduate Summer Research Programs UM-SMART Undergrad Summer Program Rogel Cancer Center Cancer Research Summer Internship Program Michigan Summer Undergraduate Research Experience: Diabetes & Metabolic Diseases (M-SURE)
University of Minnesota Twin Cities, MN Life Sciences Summer Undergraduate Research Programs (LSSURP)
University of Mississippi Jackson, MS Summer Undergraduate Research Experience (SURE)
University of Missouri Columbia, MO Summer Research Internship in Medical Sciences
University of Nebraska - Lincoln Lincoln, NE Undergraduate Summer Research Program
University of Nebraska Medical Center Omaha, NE Summer Undergraduate Research Program
University of New Mexico School of Medicine Albuquerque, NM Undergraduate Pipeline Network Summer Research Program UNM Comprehensive Cancer Center C-STEPS Program
University of North Carolina at Chapel Hill School of Medicine Chapel Hill, NC Summer of Learning and Research (SOLAR) Summer Undergraduate Research Experience (SURE-REU)
University of Oklahoma Health Sciences Center Oklahoma City, OK Native American Center for Health Research Summer Undergraduate Research Experience Summer Undergraduate Research Experience
University of Pennsylvania Philadelphia, PA Summer Undergraduate Internship Program (SUIP) Undergraduate Clinical Scholars Program Undergraduate Translational Research Internship Program
University of Pittsburgh School of Medicine Pittsburgh, PA Summer Undergraduate Research Programs Summer Premedical Academic Enrichment Program MIDAS Summer Research Opportunity Undergraduate Summer Research Opportunities Training and Experimentation in Computational Biology
University of Rochester School of Medicine and Dentistry Rochester, NY Strong Children’s Research Center Summer Program Summer Scholars Program MSTP Summer Scholars Program
University of South Alabama College of Medicine Mobile, AL Office of Undergraduate Research
University of South Dakota, Sanford School of Medicine Vermillion, SD University of South Dakota, CBBRE
University of Tennessee Health Science Center College of Medicine Memphis, TN Summer Research Scholars Program
University of Texas Graduate School of Biomedical Sciences at Houston Houston, TX Summer Undergraduate Research Program
University of Texas MD Anderson Cancer Center Smithville, TX Summer Program in Cancer Research Summer Research Program
University of Texas Medical Branch Galveston, TX Computational Cancer Biology Training Program Neuroscience Summer Undergraduate Research Program Summer Internship in Tropical Diseases Research
University of Texas Health Science Center at San Antonio San Antonio, TX Summer Programs Greehey CCRI Donald G McEwen, Memorial Summer Undergraduate Research & High School Program
University of Texas Southwestern Medical Center Dallas, TX Summer Undergraduate Research Fellowship (SURF) Amgen Scholars Program
University of Utah Salt Lake City, UT Native American Summer Research Internship (NARI) Genomics Summer Research for Minorities (GSRM) Internship
University of Virginia School of Medicine Charlottesville, VA Minority Health International Research Training Program (MHIRT) Summer Research Internship Program (SRIP)
University of Washington School of Medicine Seattle, WA University of Washington Summer Undergraduate Research Program
University of Washington School of Medicine: Harborview Injury and Prevention Center Seattle, WA INSIGHT Summer Research Program
University of Wisconsin Madison, WI Integrated Biological Sciences Summer Research Program Summer Research Opportunity Programs
Vanderbilt University School of Medicine Nashville, TN. Vanderbilt Summer Science Academy
Vanderbilt University Medical Center Nashville, TN. Undergraduate Clinical Research Internship Program (UCRIP)
Virginia Commonwealth University School of Medicine Richmond, VA Student Research Programs
Virginia Tech Carilion School of Medicine Roanoke, VA NeuroSURF Translational Neurobiology Summer Undergraduate Research Fellowship Molecular Visualization Summer Undergraduate Research Fellowship
Wake Forest University Winston-Salem, NC Summer Research Opportunities Program Wake Forest University Biomedical Engineering REU Summer Program
Washington University St. Louis, MO BioMedRAP Leah Menshouse Springer Summer Opportunities Program
Wayne State University School of Medicine Detroit, MI SURE Programs
Weill Cornell/Rockefeller/Sloan-Kettering New York, NY Gateways to the Laboratory Summer Program Weill Travelers Summer Research Fellowship Program Computational Biology Summer Program (CBSP) Chemical Biology Summer Program (ChBSP) Engineering Summer Program (ESP) ACCESS Summer Internship Program
West Virginia University Morgantown, WV Biomedical Sciences Summer Research Experience for Underrepresented Students
Yale School of Medicine New Haven, CT NIH-NIDDK/KUH Yale Summer Undergraduate Medical Research (SUMR) Yale BioMed Amgen Scholars Program
Helpful tools for those applying to medical PhD programs.
Upcoming short presentations will describe features of PhD training, alumni careers, and detailed logistics of the application process.
Learn about PhD Programs from program leaders.
Graduate schools in the biomedical sciences will generally provide a comprehensive funding package to their students.
PhD Programs by School
List of Postdoctoral Programs by School
Postbaccalaureate programs begin after an undergraduate degree and are designed to support the transition to professional school.
Listing of undergraduate summer research opportunities across STEM (Science, Technology, Engineering & Math) and Healthcare disciplines at Duke University.
H=Housing provided, $$= Stipend provided, and T=Travel Funding Available
Requirements: US Citizen, Rising Junior or Senior
This 10-week program is designed for full-time first- and second-year underrepresented minority (URM) students at any college or university. The program provides high-quality mentored training experience for URM underclassmen to gain the experience, knowledge and skills to pursue and successfully complete a major in a STEM field and prepare for a job or higher learning in a STEM-related field.
Amgen Scholars Program Website
Requirements: US Citizen, rising juniors and seniors
During a period of nine weeks, students will work full-time in a research project, will participate in weekly seminars and workshops, and will attend regular group meetings in their research labs. We strongly encourage students from underrepresented minorities groups and students with disabilities, to apply. REU participants have the opportunity to conduct research in a large spectrum of interdisciplinary topics broadly organized into five areas: energy, environment, health, national security, and learning.
REU Website
Requirements: US Citizen, Rising Sophomore or Junior
This 10-week program is designed for full-time first- and second-year underrepresented minority (URM) students at any college or university. The program provides high-quality mentored training experience for URM underclassmen to gain the experience, knowledge and skills to pursue and successfully complete a major in a STEM field and prepare for a job or higher learning in a STEM-related field.
Genome Sciences & Medicine Summer Scholars Website
Requirements: Open to all years and experience levels
10-week training program designed to give motivated undergraduate students hands-on experience in graduate-level biomedical research. We welcome applicants from around the United States who are seriously considering joining a Ph.D. graduate program after completing their undergraduate degree. Students from underrepresented groups are strongly encouraged to apply.
SROP Website
Requirements: US Citizen, open to all years no previous research necessary
The eight-week program,will give participants who are interested in science and medicine real hands-on experience in research methodology and writing. Participants are placed in teams and matched with Duke faculty mentors to work on an original, hypothesis-driven project, originating as a one-page summary and culminating in a complete research paper. A goal of the program is to have every participant qualify for co-authorship on a peer-reviewed manuscript related to their team’s project.
Summer Training in Academic Research (STAR) Program Website
The SURPH@Duke fellowship is targeted to rising juniors and seniors who are interested in future graduate study to obtain a PhD. This ten-week summer research experience focuses on learning how scientific discovery at the bench can be translated to treatment of disease. Students will train with a faculty mentor and carry out an independent research project in Duke’s Department of Pharmacology and Cancer Biology.
SURPH Program Website
Requirements: Undergraduate and Masters level students
This program allows students to select from a network of projects funded by the the National Institute of Environmental Health Sciences (NIEHS). All projects at Duke Superfund Research Center focus on early, low dose exposure toxins and their developmental impacts that are usually only evident during later life stages. In addition to working with their project or core, interns will be expected to participate in weekly research discussions and lab meetings and to present their research.
Superfund Summer Research Internship Website
REACH Equity Summer Undergraduate Research Program (RESURP) is an 8- week summer program for rising junior and senior undergraduate students. The overall goals of the program are to: increase students’ knowledge of the causes and consequences of racial and ethnic disparities in health; introduce students to basic skills in clinical research, professional development workshops, and provide an opportunity to conduct and present a health disparities research project.
RESURP Website
The Undergraduate Research Support Office (URS) promotes undergraduate research at Duke through workshops, the annual Visible Thinking Symposium, funding independent research, assistantships and conferences and by providing support for summer research programs. See the complete list of URS programs
Harvard offers many ways to participate in research during the summer.
Harvard Griffin GSAS administers the Summer Research Opportunities at Harvard (SROH) program, but you may be interested in other programs at Harvard's many schools and affiliated hospitals.
Harvard programs, harvard-amgen scholars program.
Harvard-Amgen Scholars will conduct novel biotechnology-focused research with Harvard scientists over the course of a 10-week summer internship. Interns will have the opportunity to interact closely with faculty through scholarly and pre-professional development activities including a Distinguished Faculty Lecture Series and Biotechnology Journal Club. They will also gain critical exposure to tools for effective science communication, proposal writing, and graduate school preparation, and will have opportunities to explore the Boston area through a variety of social activities and outings. Currently, enrolled undergraduates interested in pursuing a bioscience PhD or the MD/PhD are eligible to apply, especially those from underrepresented and diverse backgrounds. US citizenship or permanent residency is required. Housing on Harvard’s Cambridge campus, travel, meal allowance, and a stipend are provided.
The Harvard Stem Cell Institute Internship Program (HIP) provides an opportunity for Harvard and non-Harvard undergraduates to gain direct experience in stem cell research while working in a Harvard Stem Cell Institute (HSCI) laboratory under the supervision of an experienced researcher. Interns participate in a mandatory stem cell seminar series and a career pathways presentation and present their summer research findings at the HIP Symposium in August. Candidates must express a strong interest in stem cell biology; previous lab experience is desirable but not required. Approximately 35 students are selected by competitive review for this 10-week internship. A stipend is provided.
The Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) Research Experience for Undergraduates (REU) is a 10-week program that introduces undergraduates to bioengineering, materials research, nanoscience, environmental and earth science, and engineering while providing a coordinated, educational, and dynamic research community that inspires them to seek a graduate degree. REU research opportunities are arranged in conjunction with the Materials Research Science and Engineering Center (MRSEC), the Center for Nanoscale Systems (CNS), the Wyss Institute for Biologically Inspired Engineering , as well as other Harvard-based engineering and science entities. Professional development workshops, faculty seminars on research and ethics, and community activities are integrated into the program. Students receive a stipend and housing. Students must be U.S citizens and permanent residents who will not be graduating before December of the program year.
Scientists from the Solar and Stellar X-Ray Group (SSXG) and the Solar, Stellar, and Planetary Group (SSP) at the Harvard-Smithsonian Center for Astrophysics host undergraduate students from around the US. For 10 weeks, these students will participate in cutting-edge astronomical research about the sun and the heliosphere and learn the skills necessary for a successful scientific career. Projects range from data analysis to computer modeling to instrument building. Special seminars will be held to increase students' public speaking and computer programming skills. Students will learn from experience about scientific research and how to apply their academic work to real-world problems. Some time will also be devoted to exploring Cambridge, Massachusetts, and the surrounding area. US citizenship or permanent residency is required. Stipend, housing, and travel are provided. Please visit the SAO/NSF Solar REU Program website for more information.
The Harvard Forest Summer Research Program in Ecology is an 11-week research program that allows students to participate in ongoing research at the Harvard Forest in Petersham, Massachusetts. Projects focus on the effects of natural and human disturbances on forest ecosystems including global warming, hurricanes, forest harvesting, and invasive organisms. Researchers come from many disciplines, and specific studies center on population and community ecology, paleoecology, land-use history, phenology, biogeochemistry, soil science, ecophysiology, and atmosphere-biosphere exchanges. Students work with mentors from Harvard and collaborating institutions. Responsibilities may include field sampling, laboratory studies, data analysis, and scientific writing. In addition, students attend seminars given by nationally known scientists and workshops on career and graduate school preparation. At the end of the summer, students present their research results by writing an abstract and presenting their findings at a student research symposium. The program provides room, board, and a competitive stipend.
The Program for Research in Markets & Organizations (PRIMO) provides an opportunity for Harvard and non-Harvard undergraduates (rising sophomores, juniors, and seniors enrolled full-time at a US institution) to work closely with Harvard Business School faculty, gaining exposure to business research on a variety of cutting-edge ideas. The primary goal of the program is to build and foster a strong community of scholars committed to excellence in research as part of the Harvard Summer Undergraduate Research Village. Students must commit to the 10-week program and are provided with Harvard campus housing, meals, and a research stipend.
The Du Bois Scholars Program is a fully funded, nine-week summer research internship at Harvard College for scholars from select R2 and research-focused historically Black colleges and universities. Prospective Du Bois Scholars will apply to the program by selecting the project and faculty mentor they desire to work with during the summer. Scholars will receive dedicated hands-on mentorship and gain access to a rigorous research and learning environment that fosters intellectual growth and personal development. The program will conclude with a final presentation of their research to fellow scholars, faculty mentors and teams. Scholars will live in the Harvard residential community and participate in programming with scholars from the Harvard Summer Undergraduate Research Village (HSURV), creating relationships and memories that will last a lifetime.
Summer honors undergraduate research program at harvard medical school.
Summer Honors Undergraduate Research Program (SHURP) is a 10-week summer research program primarily for college students belonging to groups that are underrepresented in the sciences. In addition to laboratory-based research with Harvard Medical School faculty, the program includes research and career development seminars and a peer-mentoring program. A stipend, housing, and travel are provided. Administered by the Division of Medical Sciences PhD programs office at Harvard Medical School every year since 1991, SHURP is offered for currently enrolled undergraduates who are considering careers in biological or biomedical research sciences, who have already had at least one summer (or equivalent term-time) of experience in a research laboratory, and who have taken at least one upper-level biology course that includes molecular biology. US citizenship or permanent residency is required.
Harvard/MIT Equitable Access to Research Training (HEART) MD-PhD Summer Program (HEART) is a new track in the SHURP program for undergraduate students interested in pursuing MD-PhD training. In addition to the benefits of being a SHURP student, HEART students also shadow clinicians at Harvard teaching hospitals, gain hands-on experience in clinical simulations and skills workshops, and have a career and professional development series tailored toward the MD-PhD. HEART applicants must submit their primary applications via the Leadership Alliance SR-EIP before February 1. Applicants must also complete the HEART Supplementary Application by February 1, so we highly recommend submitting the SR-EIP application by mid-January. US citizenship or permanent residency is required.
The Systems Biology Summer Internship Program is a paid internship that enables undergraduates from domestic institutions to work on research projects spanning many scientific fields, including systems biology, biophysics, bioinformatics, genomics, applied mathematics, and computational biology. Participants learn a range of cutting-edge techniques in the exciting and dynamic research environments in Quantitative and Systems labs across Harvard. Participants must be US citizens or permanent residents, at least 18 years old, and enrolled in a credited US institution or university. Our applications open in late November and decisions are made by the middle of February. The program provides a stipend, housing, and travel costs, as well as professional development opportunities and a suite of cohort activities that build community and provide students with mentoring during and beyond the summer program.
The Biological Chemistry and Molecular Pharmacology (BCMP) Summer Scholars Program is a 10-week program designed to provide hands-on laboratory research experience to motivated undergraduates with a strong interest in pursuing graduate studies focused on molecular mechanisms in biology. The program offers students the opportunity to gain experience in hands-on laboratory research; to interact with faculty, postdoctoral fellows, graduate students, and other summer interns; to attend weekly presentations by department members on specific research projects and cutting-edge research tools; and to improve their presentation, writing, and communication skills. Participating laboratories cover a broad range of basic and disease-oriented research topics using the analytical tools of biochemistry, molecular genetics, biophysics, chemical biology, and structural biology. A stipend is provided, but students are responsible for travel, housing, and meal accommodations.
The 10-week Summer Undergraduate Program in Immunology exposes undergraduate students to current topics in immunology. Students participate in a combination of weekly lectures and laboratory work with faculty, graduate students, and postdoctoral fellows from the Harvard Medical School Immunology Graduate Program. Participants from colleges in which the topic is not taught or presented in depth are especially welcome, and individuals from underrepresented minority groups are especially encouraged to apply. Preference will be given to students who are in their sophomore or junior year. A stipend and housing are provided, but the program is unable to assist with travel arrangements, or visas for students.
Summer Institute in Biomedical Informatics is a nine-week (June-August) full-time extensive research opportunity with a curriculum including didactic lectures and clinical case studies. Students are carefully matched with faculty mentors from DBMI for a research project and presentation of findings. The program is for undergraduates with majors such as computer science, bioinformatics, biomedical engineering, mathematics, and other quantitative interests and skills who aspire to contribute to translational advances in biomedicine with a future PhD or research-oriented MD or MD/PhD. The majority of SIBMI students go on to pursue their PhD, MD or MD/PhD. A stipend, housing, and a travel allowance are provided. If you are an undergraduate with a strong quantitative background and interested in innovation and methodological rigor in your approach to scientific inquiry in biomedicine or in the translation of computational methods to engineering/software applications in medicine, this is the summer program for you! Please note the program is for US Citizens and US Permanent Residents (Green card holders).
The Four Directions Summer Research Program (FDSRP) provides an opportunity for talented Native American undergraduates to explore careers in the medical profession under the guidance and supervision of staff from Harvard Medical School and Brigham and Women's Hospital. The FDSRP is an eight-week summer research opportunity offered to undergraduate and first-year medical students with a commitment to the health of Native American communities. Interns engage in basic science or translational research projects under the supervision of Harvard Medical School faculty advisors. Students also receive career development training, meet faculty from across the hospital and medical school, and participate in a variety of social networking events. US citizenship or permanent residency is required. Stipend, housing, and travel are provided.
The Newborn Medicine Summer Student Research Program is sponsored by the Harvard Program in Neonatology for students interested in clinical aspects and research in newborn medicine. During the 8-week program, students are guided by faculty and fellow mentors from the program with the goal of providing undergraduate and medical school students with intensive clinical and laboratory research. As part of the program, the students will have the opportunity to observe newborn care in hospital nurseries, clinics, and neonatal intensive care units. Partial funding is available for students participating in the program.
The Harvard Summer Research Program in Kidney Medicine (HSRPKM) is built around providing students with an intensive, mentored research experience. Each student’s project is mentored by a Harvard Medical School faculty member whose work focuses on kidney disease. In addition to their daily research, students participate in a weekly core curriculum to introduce them to the breadth of kidney medicine. This includes 1) an introduction to the principles of renal physiology; 2) a renal gross pathology session with autopsy specimens; 3) training for and performing a community screening for kidney disease; 4) a visit to an outpatient dialysis center to appreciate the impact of kidney disease and experience this current treatment approach for patients with kidney failure; 5) an opportunity to observe the clinical work of a nephrologist or urologist; and 6) additional sessions on patient perspectives and the contributions of research in the biotech/pharma industry. Students present their work locally and at a national symposium. A year-round program of mentorship, career development sessions, and networking helps sustain alumni interest in nephrology and urology. The program provides housing, a stipend and transportation back to the trainee’s home or educational institution at the end of the program. Most of the trainees go on to MD, MD-PhD, or PhD degrees in the medical/biological sciences.
Summer program in biological sciences in public health.
The Summer Program in Biological Sciences in Public Health at the Harvard T. H. Chan School of Public Health is an eight-week laboratory-based biological research program for undergraduates belonging to underrepresented groups during the summer following their sophomore or junior years. The program exposes college students to the rewards of laboratory research directed toward solving important public health problems such as infections (malaria, TB, parasites), cancer, lung diseases, multifactorial, multigenic, and common diseases of aging, diabetes, and obesity. Scientific approaches include regulation of cell growth and gene regulation, cellular metabolism, DNA modification, cellular signaling, and structure-function analyses. The overall mission of the program is to prepare qualified students for graduate-level training leading to research careers in the biological sciences.
The Summer Program in Epidemiology at the Harvard T. H. Chan School of Public Health is an intensive five-week program that integrates mathematics and quantitative methods to provide students with an understanding of the skills and processes necessary to pursue a career in public health. The program recruits undergraduates belonging to underrepresented groups for graduate-level training. Areas of study include cancer prevention, infectious disease, environmental and occupational health, nutrition, and more. Students will participate in an introductory course in epidemiology and biostatistics, faculty lectures, a research project led by faculty or post-doctoral fellow, and networking opportunities. Travel, lodging, a stipend, and frequent meals are provided.
Multidisciplinary International Research Training (MIRT) is a national program designed to encourage students to pursue careers in biomedical and behavioral research providing support for undergraduate and graduate students to do health-related population-based research and training in developing countries including Zimbabwe, Ethiopia, Vietnam, Thailand, Republic of Georgia, Peru, Mexico, Ecuador, Chile, and Australia. Trainees obtain knowledge of scientific literature associated with projects, biomedical research ethics, and cultural aspects with a focus on how these aspects affect public health issues as well as scientific and medical issues. Research opportunities are designed collaboratively with faculty in these institutions to address health and health disparities pertinent to their countries.
The Summer Program in Biostatistics & Computational Biology is an intensive six-week introduction to biostatistics, epidemiology, and public health research. Based at the Harvard T.H. Chan School of Public Health, this program is designed to introduce qualified undergraduates and post-baccalaureates to the use of quantitative methods for biological, environmental, and medical research, and to demonstrate the application of quantitative methods to the study of human health. US citizenship or permanent residency is required.
Fostering Advancement & Careers through Enrichment Training in Science (FACETS) is a six-week interdisciplinary, research-intensive summer program hosted by the Office of Diversity and Inclusion within the Harvard T.H. Chan School of Public Health. FACETS offers a cadre of coursework, professional development, and networking opportunities to increase participants’ competitiveness for graduate school admission. Underrepresented populations are strongly encouraged to apply! FACETS program participants are paired with a research mentor and graduate student mentor to help them navigate research topics in the field of public health. Specifically, participants engage in coursework focusing on social and behavioral sciences, global health and population, environmental science, career navigation, and statistics. A key component of our program is networking – participants form a group of mentors ranging from peers to faculty across the entire school who provide guidance, support, and connections. Students receive opportunities to interact with world-class faculty from across the school during evening lectures.
Summer research trainee program at massachusetts general hospital .
The goal of the eight-week Summer Research Trainee Program (SRTP) is to provide underrepresented minority students with an overview of opportunities available in biomedical research and clinical medicine. Students are assigned to Massachusetts General Hospital (MGH) laboratories or clinical sites where they undertake original research projects and prepare presentations of their work under the mentorship of an MGH investigator. In addition to this research experience, students will attend weekly seminars, career development workshops, and networking events. The program is open to underrepresented minority students who have completed at least three years of college or who are first-year medical students; no prior research experience is necessary. US citizenship or permanent residency is required. Housing, meals, and a stipend are provided.
The STARS Program provides underrepresented minority (URM) undergraduate and first-year medical students with a strong interest in pursuing advanced careers as research scientists, physicians, and/or healthcare professionals with an opportunity to engage in basic, clinical, and translational research projects during an eight-week summer program at Brigham and Women’s Hospital (BWH) and Harvard Medical School (HMS). Interns participate in a research project under the supervision of an HMS faculty mentor. Additional activities include "Research 101" education and training sessions, social networking opportunities, weekly roundtables with BWH Faculty and the Office for Multicultural Faculty Careers, and community health center/clinic shadowing. US citizenship or permanent residency is required. Housing, travel, and a stipend are provided.
The Dana-Farber/Harvard Cancer Center (DF/HCC) Continuing Umbrella of Research Experiences (CURE) program introduces Massachusetts high school and undergraduate students from underrepresented minority populations to cancer research. Each year, CURE selects several students to participate in full-time 8–12-week summer internships. Interns are assigned individual mentors, who oversee their research and offer guidance. In addition to working on a research project, participants benefit from various program activities, such as a comprehensive orientation, scientific research, and professional development seminars, journal club discussions, networking, and social events. Applicants must demonstrate an interest in pursuing a biomedical or health-related research career. Students receive a weekly stipend.
The Brigham Research Institute’s Summer Undergraduate Research Internship Program provides an excellent opportunity for undergraduates across the United States to gain a focused, challenging, and hands-on research experience in a basic science or clinical laboratory setting. Interns can choose from a wide variety of host labs doing exciting work in areas related to cardiovascular, immunology, musculoskeletal, neurobiology, and sex differences research. During the 10-week internship program, students can take advantage of educational and professional development offerings on the Brigham and Women’s Hospital and Harvard Medical School campuses as well as participate in a central curriculum associated with the program. Students will present their research findings in a mini-research symposium at the end of their training period.
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September 25, 2024
The 30th Annual Pritzker Summer Research Program proved to be another successful year of scholarship for a large number of second-year students. Funded in part by the NHLBI, NIA, NCI, NIDDK(DULCE) the Bucksbaum Institute for Clinical Excellence, and The Center for Healthcare Delivery Science. The Summer Research Program allowed students to work closely with faculty mentors across the clinical, translational, and basic sciences. Thanks in large part to the continued guidance of Drs. Sola Olopade, Funmi Olopade, David Meltzer, Valerie Press, Rachel Wolfson, Erika Claud, and Arshiya Baig, the Summer Research Program has often given students a platform for ongoing research and a chance to present and publish their work on a national level.
After presenting their work to a panel of faculty judges, the following students were recognized for their excellence. The Pritzker School of Medicine would like to congratulate these second-year medical students:
Adnan Askari Mentor: Justin Kline, MD Evaluation of the PTPN1/2 Inhibitor AC484 in Combination with CAR-T Therapy in Diffuse Large B Cell Lymphoma
Olivia Christensen Mentor: William Parker, MD, of Neighborhood Socioeconomic Status and Access to Transplantation Among US Deceased Donor Kidney Candidates
Kenneth Wang Mentor: Royce Lee, MD Electrophysiological Measures of Error Processing Following Low-Dose LSD Administration
Alec Jacobson Mentor: Elbert Huang, MD, MPH The Formation and Impact of Goals in Older Patients with Type 2 Diabetes
Sean Smith Mentor: Dimitra Skondra, MD, PhD Optical Coherence Tomography Angiography Features in Black and White Patients with Diabetic Retinopathy
Gabrielle Sudilovsky Mentor: Sarah Ackroyd, MD, MPH Racial Disparities in High-Grade Uterine Cancer: Socioeconomic Status Does Not Bridge the Gap
Aishwarya Atmakuri Mentor: Akash Patnaik, MD, PhD Characterizing the Spatial Distribution and Function of Regulatory T Cells in Localized Prostate Cancer
Vivianna Camarillo Guenther Mentor: Benjamin Shogan, MD Nutritional Prehab to Prevent Colon Cancer Recurrence: The Role of Bacterial Collagenase and MMP9
Emily Guernsey Mentor: Debra Stulberg, MD, MAPP Is Medicaid Expansion Associated with Trends in Severe Maternal Morbidity?
Kiara Revels Mentor: Victoria Barbosa, MD, MPH Knowledge and Attitudes About Hairstyling Products, Practices and Health in Black Women with Alopecia
Marcus Allen Mentor: Aravind Athiviraham, MD The Impact of State Policies on High School Athlete Health and Safety
Alice Bai Mentor: Nita Lee, MD, MPH Self-Identified Supportive Care Needs of Patients with Advanced Stage Cervical Cancer
Solomon Egbe Mentor: Jason Strelzow, MD Influence of Interlocking Screw Configurations on Postoperative Outcomes in Tibial Shaft Fractures
Jacob Fries Mentor: Harita Shah, MD Assessment of Neighborhood-level Social Determinants of Health Impacting PrEP Uptake Among Latina/x/o Adults in Cook County, IL
Samantha Kwock Mentor: Julie Chor, MD, MPH Labor and Delivery Expectations and Experiences of Transgender and Gender Diverse Patients and their Partners
Summer Reyes Mentor: Anna Volerman, MD Neighborhood Socioeconomic Disadvantage and School Stock Albuterol Utilization in a State-Wide Program
Nicole Robinson Mentor: Daniel Ginat, MD, MS CT Radiomics and Machine Learning for Differentiating Benign and Malignant Cervical Lymph Nodes in Patients with HPV+ Oropharyngeal Squamous Cell Carcinoma
Hillary Schiff Mentor: Sonia Kupfer, MD Investigating the Role of Secondary Bile Acid Metabolism in Colorectal Cancer Risk
Sahil Sethi Mentor: Lewis Shi, MD Deep Learning-Based Detection of Anterior-Inferior Glenoid Labrum Tears
BMC Medical Education volume 24 , Article number: 1020 ( 2024 ) Cite this article
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Previous graduate students and postdoctoral associates from the University of Florida Health Cancer Center, in partnership with the University of Florida Student Science Training Program, implemented a cooperative learning curriculum, providing high school students with a broad overview of cancer topics over six weeks over the summer. To address discussions necessitated by the COVID-19 pandemic on student autonomy, we report lessons learned and outcomes of a cancer biology and therapeutic curriculum modified for a collaborative learning environment.
This pre-post longitudinal observational study conducted in 2023 on a cancer biology and therapeutics course evaluated students’ knowledge retention and general awareness and opinions in cancer research. A structured survey was employed for data collection, using learning assessment surveys and the Likert scale ranging from 1 to 10, with 10 being highly likely.
Student performance tracked over a 7-year period indicated consistency in performance between years. Post-assessment analysis revealed significant improvements in student benchmark understanding, notably in their ability to define cancer in one sentence ( p = 0.0407), identify cancer therapies ( p = 0.0040), and recognize cancer hallmarks ( p < 0.0001). An increased trend in median response to the likelihood of pursuing cancer research ( p = 0.8793) and the possibility of pursuing cancer research ( p = 0.4874) were also observed, although not statistically significant. Moreover, feedback from participating students indicated that “ the educational activities at the end of class (e.g. , escape room , case studies) ” and “ learning about cancer and getting to work in groups… ” the curriculum fostered a positive educational learning environment.
Students generally retained the course material presented and upheld a positive perception of the course. Incorporating opportunities for peer-to-peer learning, especially when introducing or discussing complex issues like cancer, may benefit student autotomy.
Peer Review reports
The University of Florida Student Science Training Program (UF-SSTP) is a seven-week residential research program for high-achieving students entering their senior year of high school. Under the mentorship of faculty members, students actively participate in ongoing research projects for 30 h per week, gaining hands-on experience in current research topics. Celebrating its 65th consecutive year, the UF-SSTP has a long-standing tradition of fostering interpersonal, leadership, professional communication, and organizational skills in its participants. With over 5,000 academically talented students worldwide having completed this rigorous summer residential research program since its inception in 1959, the UF-SSTP provides invaluable opportunities for young scholars to excel. Furthermore, they enroll in UF honors seminar classes created and organized by graduate students and postdoctoral associates to enhance their academic knowledge and skills further.
Since 2011, graduate students and postdoctoral associates at the University of Florida Health Cancer Center (UFHCC) have coordinated a “Cancer Biology and Therapeutics” course. This course has been a transformative experience for lecturers and high school students alike, providing teaching experience to the former while enriching the latter’s knowledge of cancer. In a previous publication by former instructors of this course [ 1 ], the instructors tracked students’ performance and discussed the changes over five years. During this period, they observed incremental improvements in cumulative grade averages. Moreover, the instructors assessed students’ knowledge before and after the course and observed significant increases in understanding benchmarks, particularly in basic cancer knowledge and potential therapeutic options.
Recent studies have indicated that the COVID-19 pandemic has significantly impacted medical education, specifically learning and teaching styles, although the long-term implications are still being evaluated [ 2 , 3 ]. Other studies have shown a significant correlation between online cooperative learning and problem-solving ability, as well as learning satisfaction [ 4 ], and students acknowledged that group learning benefited skills related to communication, problem-solving, research, listening, and negotiation [ 5 ]. The COVID-19 pandemic has prompted remote learning, in which elements have emerged, which are beneficial for student autonomy. Studies have shown that incorporating traditional and remote education increases scholastic fulfillment while promoting student autonomy [ 6 , 7 ]. With that in mind we updated the cancer biology and therapeutics course [ 1 ] to have elements that can work for both online and in-person seminars.
Here, we provide an update on monitoring student progress amid the shift from COVID-19-associated limitations in 2021 to resuming in-person lectures (2022–2023). We aim to address student autonomy by designing surveys aimed at assessing student performance following updates to the cancer biology and therapeutics course [ 1 ].
Final grade averages were collected between 2017 and 2023. In 2017 and 2018, previous instructors collected cumulative grades on campus. In 2021 the course was taught virtually following COVID-19 restrictions, and the grades were collected. In 2022–2023, grades were collected from students participating on campus when they were allowed to return to in-person lectures. In 2023, we designed learning assessment surveys to gauge student retention in core cancer biology concepts and developed Likert surveys to assess students’ perceptions of cancer research and career outcomes.
The course convened eleven times on Tuesdays and Thursdays, with each session lasting two hours, totaling 22 contact hours (Table 1 ). The class size ranged from 10 to 14 students. Each lecture was divided into two sections: Sect. 1 consisted of prepared lectures, during which students were encouraged to complete follow-along worksheets for engagement and study purposes. In Sect. 2, students engaged in team-based group activities that applied lecture material, including case studies and group assignments. In-lecture assignments were collected, graded, and returned. Students demonstrated their understanding of cancer’s clinical impact through conceptual case studies. They underwent assessment for learning retention via a final examination consisting of multiple-choice, short-answer, and essay questions.
Our approach merges both didactic learning modules with cooperative learning strategies to educate students on recent cancer advancements [ 7 ]. Additionally, we exposed students to various career paths through an interactive panel discussion encompassing fields such as epidemiology, law, consulting, biomedical sciences, engineering, physics, medicine, and academia. The assessment of learning benchmarks spread across four modules was conducted as follows: (1) Students were evaluated on their ability to develop a solid understanding of basic cancer biology terminology, including terms such as cancer, tumor, oncogene, and tumor suppressor. (2) Student assessment involved exploring the fundamental characteristics of cancer, known as hallmarks, and gaining insights into how cancer cells behave differently from normal cells. (3) Students were tasked with investigating the factors and mechanisms contributing to the development and transformation of cancer cells. (4) Student evaluation included the role of epigenetic regulation in cancer. (5) Students’ understanding of the relationship between the immune system and cancer was assessed, exploring how immune responses can impact disease progression. (6) Assessment involved the influence of the microbiome on cancer prognosis and examining how the diverse gut microbiome in our bodies can affect cancer outcomes. (7) Evaluation included students gaining knowledge about different types of cancer therapies, both traditional and innovative, and understanding their mechanisms of action in treating cancer. (8) Students were exposed to different career options in cancer. Further details about student learning objectives and assessment methods can be found in Table 2 .
The course incorporated several key cancer hallmarks [ 8 ] structured into four modules to provide smaller, more manageable units. This approach facilitated a more cohesive and interconnected learning experience, allowing students to build upon and establish connections between concepts as they progressed through each module. Each module was divided into two lectures.
Module 1 provided a foundational understanding of the course and necessary background information on cancer hallmarks. The topics in lecture one (Introduction and Central Dogma) included deoxyribose nucleic acid (DNA) structure and synthesis, transcription, protein structure, protein translation, and mutations. To facilitate the team-based group activity, the students were divided into two groups to translate genetic codes. Lecture 2 (Cancer Hallmarks) discussed genomic instability, malignant transformation, oncogenes and tumor suppressors, angiogenic signaling, and cancer metastasis and invasion. The group learning activity comprised two case studies with the following objectives: understanding how to research epidermal growth factor receptor (EGFR) and Kirsten Rat Sarcoma Viral oncogene homologue (KRAS) inhibitors, interpreting survival graphs, comprehending computed tomography (CT) and positron emission tomography (PET) scans, and understanding mechanisms of drug resistance.
This module was based on the following hallmarks: genomic instability and mutation, evading growth suppressors, sustaining proliferative signaling, and non-mutation epigenetic reprogramming [ 8 ]. This module was divided into two parts. The first lecture introduced common mutations observed in cancer, followed by how these mutations contribute to the molecular regulation and role of oncogenes and tumor suppressor genes. The first lecture was followed by a case study covering cancer patient diagnosis & treatment. Each case study had a prompt that required students to think critically and engage with their peers to come up with an answer. The second lecture focused on epigenetics in cancer, highlighting what epigenetics is, critical regulators of epigenetic markers, and the functional consequence of deregulated epigenetic markers in cancer, such as DNA methylation on gene expression. An interesting case study with a real-world scenario in a cancer setting followed this lecture. Case studies proceeded the lecture to introduce how to identify and clinically target dysregulated epigenetic regulators.
Cancer Immunology and Immunotherapies for Cancer was the third of four modules in the course and was based on the “Avoiding immune destruction” hallmark [ 8 ]. This section was divided into two lectures: “Introduction to Immunology” and “Immunotherapies for Cancer”. The first lecture provided background on the fundamentals of immunology and the relationship between the immune system and cancer. The second lecture, “Immunotherapies for Cancer,” was to provide an understanding of how we can exploit our immune system to create therapies against cancer. Following lecture 1, students engaged in a peer-led case study assignment to identify responses to novel immunotherapy. After lecture 2, students were divided into two teams and participated in a competitive exercise using open notes to assess their comprehensive knowledge of the two lectures.
Module 4 was based on incorporating hallmark “polymorphic microbiome” [ 8 ] and therapeutic options. The module was split into two lectures: Microbiome in Cancer and Therapy and the Microbiome. The first lecture introduced the human gut microbiome, microbial dysbiosis, bacteria’s role in cancer, and the importance of a healthy lifestyle to maintain a healthy gut microbiome. The students engaged in interactive learning experiences, such as the Human Gut Game (HGG) [ 9 ], a group-based activity that simulates the complexities of the human gut microbiome, allowing them to explore how changes in microbial populations can affect health outcomes, following lecture 1. The second lecture broadened students’ understanding of cancer treatment strategies beyond conventional therapies (i.e., surgery, radiation, chemotherapy). Subsequently, the lecture transitioned to the limitations of those therapies and how the microbiome can be harnessed as a complementary treatment strategy for cancer. For the group learning session, students played an interactive game, “Mystery Box”, that quizzes the understanding of the lecture. Students formed two teams, and each answered 10 questions related to the topic taught during the lecture.
Students were divided into two cohorts, formed through a random selection process. The students were provided with a rubric outlining the following prompts: Prompt 1: Present the findings related to the development, efficacy, safety, and culmination of a novel drug candidate for glioblastoma in clinical phase 4 trials. Prompt 2: Demonstrate the process of developing a novel diagnostic method for Chronic Myeloid Leukemia (CML), from hypothesis formulation to its implementation in clinical practice. Both cohorts were required to incorporate elements of in vitro and in vivo studies, team collaboration, data analysis and interpretation, clinical trial designs, and clinical implementation and evaluation. Students’ presentations were to be 15 min, followed by 5 min of questions by the audience and instructors.
Students participated in examining seven multipart interactive challenges, utilizing their lecture notes to apply a comprehensive understanding of the course material (Additional file 1 ). The learning objectives (Additional file 2 ) encompass foundational knowledge of cancer hallmarks. Additionally, students could participate in a case study aimed at the practical application of the principles governing cancer hallmarks (Additional file 3 ).
Students were assessed to gauge their current career interests, and the panelists were selected based on students’ feedback. The career panel was divided into two parts. The first part was a brief 10-minute presentation about potential careers in science, technology, engineering and mathematics (STEM) given by one of the course instructors. The second and central part was a moderated panel discussion between the different STEM professionals and the high school students. Panelists with expertise in various fields, including engineering, physics, biomedical sciences and research, medical practice, and venture capital and consulting, were invited to participate in the cancer-centric panel discussion.
More details of each module and course components are discussed in the extended methods (attachment 5).
The comprehensive assessment was an online timed examination, allowing only a single attempt, with a duration of 95 min. Students were allotted five days to complete the assessment, which could be completed anywhere on campus. The assessment was designed to maintain academic integrity: (1) The questions were randomized for each student, and once the examination began, the students were to complete it within the allotted time; (2) once the assessment was finished, the students could not see the questions or the corrected answers until the close of the assessment. The assessment encompassed 20 questions, divided into four modules, each containing five questions. These questions were structured to include three multiple-choice questions, one short-answer question, and one essay question. Examination questions are included (Additional file 4 ).
Trends in students’ final grade averages from 2017 to 2023 are depicted in Fig. 1 , with individual grade averages tracked. Cumulative grade averages for 2017–2018 were collected by prior instructors as previously described [ 10 ]. The grades collected in 2021 reflect the modifications to the original course curriculum for virtual learning. Data for 2022 and 2023 represent grade averages after implementing changes to the curriculum (Fig. 1 ). Statistical analysis using students’ t-tests revealed no statistically significant deviation in student grade averages between 2017 and 2021. However, statistically significant improvements were observed from 2021 to 2022 ( p = 0.0284) and 2023 ( p = 0.0372). Each data point corresponds to the grade average of an individual student. We also observed improvement in the minimum grade average of 61 to 90.35 in 2022 and 76.98 in 2023 (Table 3 ).
Cumulative course performance: Demonstrates the comparison of cumulative examination performance over different periods. Each data point represents an individual’s cumulative grade average. The examinations conducted in 2017–2018 were administered before the revision, while the 2021 examination was conducted virtually after the revision. Two-way ANOVA test was used to calculate the p -values
On the first day of the course, students were evaluated on their baseline knowledge of cancer-related topics and their expectations for the course. The assessment was adopted as previously described [ 10 ], lasted 5 min, and included questions on cancer knowledge and hallmarks, treatment options, and their research interest. The students were re-evaluated on their knowledge on the final day of class. Figure 2 presents the distribution of responses for each question.
Results of the pre-and post-assessment. ( A ) Definition of cancer: Students’ responses to defining cancer in one sentence, with scores ranging from 1 to 10. ( B ) Cancer therapies: Students’ responses naming cancer therapies. ( C ) Hallmarks of cancer: Students’ responses naming hallmarks of cancer. ( D ) Likelihood of curing cancer: Students’ ratings on a scale of 1 to 10 on the likelihood of scientists curing cancer. ( E ) Likelihood of pursuing research: Students’ ratings on a scale of 1 to 10 on the likelihood of pursuing a research-focused career. ( F ) Likelihood of pursuing cancer research: Students’ ratings on a scale of 1 to 10 on the likelihood of pursuing a career focused on cancer research. ( G ) Perceived difficulty of the course: Students’ ratings on a scale of 1 to 10 on the expected difficulty vs. actual difficulty of the course. A paired parametric Student’s t-test was used to calculate the p-values. Error bars represent standard errors of the mean. The data is assumed to be normally distributed
The students’ pre- and post-assessment responses were recorded, pooled, and randomized. Instructors then assigned a numerical grade to each response, ranging from 1 to 10. The mean score increased from 4.9 to 6.6 throughout the course. Statistical analysis using a paired student’s t-test revealed a significant difference in scores ( p = 0.0407).
Similar recorded therapies were counted only once, and vague answers (e.g., “ drugs ”) were assigned as 0. The mean number of therapies listed increased from 1.7 during the pre-assessment to 3.9 during the post-assessment. General or vague answers were counted once. Statistical analysis using a paired student’s t-test indicated a significant difference in the results ( p = 0.0040).
Similar hallmarks were recorded once, and blank responses were assigned a value of 0. Students’ average recollection of cancer hallmarks significantly increased from 0 to 3.8. General or vague answers were counted once. Statistical analysis using a paired student’s t-test revealed a highly significant difference in the results ( p < 0.0001).
Students were asked to rate how close scientists were to curing cancer on a scale of 1 to 10 (with 10 indicating high likelihood). The average response scale remained unchanged, with a pre-assessment score of 5.2 and a post-assessment score of 5.2. Statistical analysis using a paired student’s t-test indicated these results were insignificant ( p > 0.9999).
On a scale of 1 to 10 (with 10 indicating high likelihood), students were asked to rate how likely they were to pursue a research-focused career. The average response scale increased, with a pre-assessment score of 6.5 and a post-assessment score of 6.7. However, statistical analysis using a paired student’s t-test indicated that these results were statistically insignificant ( p > 0.8793).
Students were asked to rate, on a scale of 1 to 10 (with 10 indicating high likelihood), how likely they were to pursue a career focused on cancer research. The average response scale increased, with a pre-assessment score of 4.9 and a post-assessment score of 5.6. However, statistical analysis using a paired student’s t-test indicated these results were insignificant ( p > 0.4874).
During the pre-assessment, students were asked to rate, on a scale of 1 to 10 (with 10 indicating high likelihood), how difficult they expected the course to be. During the post-assessment, the students were asked to rate how difficult the course had appeared to them. The average response scale decreased, with a pre-assessment score of 6.6 and a post-assessment score of 5.5. However, statistical analysis using a paired student’s t-test indicated these results were insignificant ( p > 0.1538).
Students received a post-course evaluation from the SSTP program director, which included rating items on a scale of 1 to 5. These items were: (1) Overall, this course provided a valuable educational experience. (2) Course activities and assignments enhanced my ability to analyze, solve problems, and/or think critically. (3) The course content (e.g., readings, activities, assignments) was relevant and useful. Students’ responses were recorded, as depicted in Fig. 3 .
Student evaluation of course design. Student evaluation of course rigor. On a scale of 1 through 5, students were asked to evaluate their educational experience, their improved ability to solve problems and critically think, and the course content. Each point represents a student’s response. Error bars represent standard errors of the mean. The data is assumed to be normally distributed
The UF-SSTP program is an immersive experience for high school students interested in research. Our group designed and implemented a 7-week summer course on the fundamentals of cancer biology, focused on cancer hallmarks. Previous instructors of this course reported steady trends in cumulative grade averages over five years and increased basic cancer knowledge [ 1 ]. However, this study was published before the COVID-19 pandemic, and therefore, new aspects need to be considered to optimize student learning outcomes post-pandemic. Here, we provided an updated study on teaching methods and student learning outcomes in this summer course on cancer biology after the COVID-19 pandemic.
In 2021, the curriculum underwent revision to accommodate remote learning. We partnered with the UF Center for Precollegiate Education and Training (CPET) pre-scholars program to accommodate virtual learning standards and offer a curriculum that could crosslink Florida learning standards with cancer biology. Since collaborative learning has shown potential improvement in student autotomy [ 4 , 5 ], we wanted to incorporate this style for remote learning, engaging in peer-to-peer collaboration. Thus, we aimed to maintain course rigor while retaining student autonomy and collaboration. The class convened online for eight sessions, each lasting two hours.
Consequently, the curriculum was adapted with the following considerations: adjusting the course duration, addressing technical constraints associated with the “Zoom” platform, balancing student autonomy with peer collaboration, upholding the academic rigor of the content despite the absence of nonverbal cues from students, and restructuring the contents of cancer hallmarks [ 11 , 12 ] into manageable, foundational units. To address these considerations, we implemented “lecture workshops,” that is, didactic lectures followed by breakout room case studies to reinforce lecture material. We also implemented follow-along lecture worksheets and frequently asked questions to engage students throughout the lecture.
Based on prior student feedback, we further revised this course in 2022 to broaden the cancer hallmarks and include more clinical applications. We incorporated cancer immunology and focused on incorporating patient data into the student-led workshops. We also provided additional online resource links to support their analysis. For instance, one case study tasked students with identifying two major types of lung cancer and determining which type is most commonly associated with cigarette smoking. Moreover, they were asked to identify the top three most common mutations for each type and classify whether each mutation is a tumor suppressor gene (TSG) or an oncogene. In this case study, we used clinical data provided by The Cancer Genome Atlas (TCGA) to reinforce the concepts of oncogenes and tumor suppressors. As a learning benchmark, students were expected to determine if their “mock” patient has an oncogenic driver or depletion of a tumor suppressor.
In 2022, the cancer hallmarks were revised to include “polymorphic microbiomes” and “non-mutation epigenetic reprogramming” [ 8 ]. We further revised the curriculum to incorporate these hallmarks into modules, including cancer immunology from the prior year. This speaks to the versatility of the curriculum style, as we saw steady cumulative grade averages between the 2022 and 2023 cohorts (Fig. 1 ) despite introducing a more rigorous curriculum. In the following sections, we discuss and interpret the pre-post longitudinal observational study results and dive deeper into each course component. Our main objective is to provide guidelines on how we delivered a course on the fundamentals of cancer biology.
As previously published, student-led learning increased their performance and autonomy [ 4 , 5 ]. In our study, we observed similar trends in overall students’ performance and autotomy. When students were first introduced to group assignments, a few took on leadership roles, but not many team-based decisions were made among group members. Throughout the course, we noticed that more students participated in group discussions and activities as a team, fostering collaboration, negotiation, and problem-solving skills. During the lectures, we observed an improvement in the number of questions asked. Additionally, the questions they asked demonstrated an improvement in critical thinking regarding the course lectures. We noted that students would apply principles acquired during previous lectures in their questions, indicating improvement in their critical thinking.
The final grade averages served as a comparative assessment between years. We included 2017 and 2018 as a reference point for the curriculum prior to modifications in 2021. In 2017 and 2018, the course was taught in person by previous instructors [ 1 ]. In 2021, the course was taught virtually amid limitations in place via COVID-19. In 2022 and 2023, the course was taught in person following the removal of COVID-19 restrictions. We cannot account for the differences in educational backgrounds among cohorts. However, students are generally selected from similar regions each year. Moreover, we cannot account for the differences in how prior course instructors implemented the curriculum. We altered the curriculum in 2021 to comply with remote learning restrictions. When the restrictions were lifted, we adopted the same approach for future cohort installments (2022 and 2023), and we observed steady rigor in the grades tracked. We also observed improvement in the minimum grade average in 2022 and 2023 (Table 3 ). It is important to note that while we do not want to compare between cohorts, we do want to emphasize that the changes we made throughout 2021–2023 did not significantly worsen student performance. We also must note that the improvements we implemented may have altered final performances throughout the years, and we observed that some cohorts had closely distributed cumulative grades while others did not. This may be due to differences in foundational knowledge and variations in instructors’ delivery of the material. We believe adding follow-along assignments and student-led cooperative group assignments improved students’ autonomy and comfort with the subject area.
When we asked students to define cancer in one sentence, we observed a significant increase in the quality of the responses in the post-course assessment compared to the pre-assessment (Fig. 2 A). For instance, general responses submitted for the pre-assessment included “ a foreign body that can spread throughout the body ” and “ cell mutation in the human body .” In contrast, in the post-assessment, we observed higher-quality responses such as “ a mutation in a cell that leads to the uncontrolled dividing and spreading of malignant cells. ” We also noticed that some students incorporated cancer hallmarks and terms (“ defect of cells resulting in oncogenes that multiply quickly , spread throughout the body , and cause tumors ”) in the general responses after the course, which indicated that students retained general information throughout the course. Moreover, students also demonstrated the ability to connect key concepts over the duration of the course. For example, some students recognized the link between genomic instability and the potential for cancer-associated antigen presentation, recognizing avenues for targeted therapy or immunotherapy.
We next asked students to name as many cancer treatments as they could (Fig. 2 B). During the pre-assessment, a lot of the answers were traditional therapies such as “ radiation ,” “ chemotherapy ,” and “ surgery. ” In the post-assessment, the variety of responses significantly improved to include both standard therapies as well as more precision-based therapies such as “ immunotherapies (CAR T cells) ,” “ gene therapy ,” “ hormone therapy ,” “ fecal microbiota transplant (FMT) ,” and “ bone marrow transplants ,” among others. Our focus throughout the course was to increase exposure to targeted therapies and novel therapies not commonly discussed, for instance, “ adoptive cell therapy ” and “ small tyrosine-kinase inhibitors .” The interactive group learning assignments covered novel therapeutic approaches, likely aiding students’ high retention of the course material.
The most remarkable findings emerged when students were asked to identify as many cancer hallmarks as they could (Fig. 2 C). Initially, during the pre-assessment, responses ranged from “ What is a hallmark? ” and “ not sure ” to some leaving the question unanswered. However, following the course, there was a statistically significant increase in the quantity and quality of the responses, exceeding our expectations. For instance, one student provided a summary list including “ sustaining proliferative growth , metastasis , tumor-promoting inflammation , developing immune escape , senescent cells , dysregulated cell metabolism , resisting cell death , genome mutations ,” and another answered “ angiogenesis , cell proliferation , evading cell death , polymorphic biomes , irregular cellular regulation. ” Notably, the students correctly identified cancer hallmarks within the allotted time.
Another notable trend between pre-assessment responses and post-assessment responses is the likelihood of pursuing research (Fig. 2 D), specifically cancer research (Fig. 2 E). Although no statistical significance could be observed throughout the course, there was a noticeable upward trend in median responses after the course ended. Furthermore, when assessing the course difficulty responses, the data indicate that some students did not feel like the course was as challenging as initially thought (Fig. 2 G). However, the responses from that survey were non-statistically different.
The SSTP program director also gathered feedback from students regarding the course difficulty and design (Fig. 3 ). Students were asked to rate three prompts on a scale of 1–5, where 1 indicated “ strongly disagree ” and 5 indicated “ strongly agree .” To the first prompt (overall, this course was a valuable educational experience), 50% of students answered 4, and the other 50% gave a score of 5, indicating the students found the course to be of educational value. This was coupled with additional feedback, with one student stating: “ The case studies were a lot of fun and provoked critical thinking in a way I’ve never experienced ”.
The second prompt interrogated if the course activities and assignments improved the students’ ability to analyze, solve problems, and/or think critically. While most students (62.5%) gave a rating of 5, one student gave a response of 2, another gave a score of 3, and the other gave a score of 4. Additional feedback highlighted the effectiveness of educational activities such as escape rooms and case studies, with responses like: “ The educational activities we did at the end of class (e.g. , escape room , case studies) ” and “ Learning about cancer and getting to work in groups and play games ” further reinforcing the curriculum style. The final prompt asked whether the course content (e.g., readings, activities, assignments) was relevant and valuable. Once again, most students responded with a rating of 5 or 4 (50% or 37.5, respectively), with only one response rating of 3. Overall, we felt confident that these students benefited from the course and enhanced their learner autonomy.
Students were also encouraged to provide additional comments, and only one did so. The response mentioned, “ The terminology was difficult to fully understand , and the lessons felt a little rushed each time. Adding more assignments would help us understand the information more and apply it .” Although the course is condensed into 22 contact hours, future curriculum revisions may consider providing optional pre-reading assignments to help students grasp more challenging concepts.
Due to the limited time and course lecture design, we could not proctor the final assessment. However, to ensure academic honesty, we added safeguards to the evaluation. We added a time limit of 95 min, randomized the assessment questions, and locked submitted assessments until the instructors graded all assessments. These steps would allow students enough time for multiple-choice and short-answer essay questions while discouraging academic dishonesty. We also noted how long it took for each student to complete the assessment and the time and date of completion. There is no indication of academic dishonesty for the final examination (data not shown).
Some of the essential skills required for a successful career in STEM include the ability to effectively communicate, lead, think critically, collaborate, and summarize and interpret scientific literature and data. Throughout the course, these students participated in several peer-to-peer activities that prompted them to independently improve all of these skills. We observed improvements in student-led leadership and the enhancement of shared ideas when students engaged after didactic lectures. Moreover, the students were more resourceful, taking the initiative to look up and understand the case studies and assignments during that time.
Students also presented case studies and self-coordinated with each other to determine sections to present. This case study presentation was timed, and students effectively communicated a lot of information on a topic they had not previously known. During the escape room, we observed peak performance in student collaboration, with students working together to connect main ideas across lectures to decode the escape room.
Additionally, students participated in a career overview panel. The panelists were from several fields in STEM and are described in the extended methods (Attachment 5 ). During this time, students were prompted to develop several questions to ask the panelists. Most of the students were unfamiliar with all aspects of STEM, especially careers outside of medicine in cancer, and found the panel informative. Other studies have addressed that students generally have limited knowledge of STEM careers and that early exposure can enhance their interest in pursuing other STEM-related careers [ 13 , 14 ]. Our study showed a non-statistical mean increase in students likely to pursue research, specifically cancer research. Altogether, students not only improved their general knowledge but demonstrated improvement in all the skills required to navigate future careers in STEM. This is corroborated by prior literature that has shown collaboration improves these skills [ 4 , 5 ].
One important caveat is that we are not comparing online virtual learning from the CPET pre-scholars program in 2021 to the in-person modified course in 2023. The conditions and requirements for student selection were changed in 2021. We also tracked student grades across five years to assess if our modifications in 2021 disparaged grading standards when students were allowed to return to in-person learning. Therefore, the grades tracked over time are used to ensure grading standards. This study includes grades collected prior to 2021 by different course instructors who were responsible for the course. Therefore, inconsistencies in the final evaluation between 2017 and 2022 may exist. The Course feedback and cumulative grades from 2021 to 2022 have been collected, dating before and during course modification. However, cumulative grade averages were not presented, limiting the comprehensive understanding of student performance. Furthermore, variations in teaching styles due to changes in course instructors could have influenced the results, suggesting the need for consistency in instructional approaches for future studies. We note that the final examination was conducted unsupervised, and we have added measures to reduce academic dishonesty, but these may exist, skewing the data. Therefore, we placed emphasis on lessons learned from our experience implementing this cancer biology and therapeutic course. Lastly, our pre-post observational study was conducted for one cohort. Future instructors should track responses for long-term and consistent results.
Overall, our course aimed not only to teach students about different concepts of cancer development and hallmarks but also to encourage students to explore different careers within the STEM field. In our experience, we have found that students at the high school stage have not been exposed to a wide range of STEM careers, leading to many students focusing on a career in medicine as their only option. In this course, we aimed to highlight alternative STEM careers to medicine to help students make informed decisions on their future careers.
In summary, we imparted a summer course on cancer hallmarks, adapting our teaching strategy to the post-COVID-19 era and measuring student learning outcomes. The results indicated that students performed better in the post-course assessment than in the initial evaluation, indicating that students could successfully understand and retain concepts related to diverse cancer hallmarks. Students also demonstrated improved critical thinking and enhanced collaborative and communication skills. We hope our detailed overview of teaching methodologies and outcome assessment approaches can assist fellow instructors in crafting courses in the post-COVID-19 pandemic era. This curriculum can be adapted based on the level and the number of students per class, and it can be modified to cover additional cancer hallmarks.
The data supporting the findings of this study are available upon reasonable request from the University of Florida Cancer Center.
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The authors thank the University of Florida Center for Precollegiate Education and Training for administering the Student Science Training Program and the Frances C. and William P. Smallwood Foundation for partial funding. Thank you to the UF-Health Cancer Center for providing a space for the students to gain knowledge that can be passed along and a platform that has allowed us to design and implement a curriculum for aspiring scientists. Furthermore, we thank Dr. Kathryn Stofer for her guidance and expertise in seeking IRB approval. We also acknowledge Dr. Dietmar Siemann for his time supporting our research and community outreach ideas and his training grant that has supported our research. We would also like to state that the research reported in this publication is partially funded by the National Cancer Institute of the National Institutes of Health under Award Number T32CA257923. And importantly, we want to thank the students for their patience with the instructors and for being exemplary students eager to learn. To the many previous course instructors, we thank you for your dedication in laying the foundation and building a course that has impacted generations of students.
Research reported in this publication was supported by the UF Health Cancer Center, funded in part by state appropriations provided in Fla. Stat. § 381.915 and the National Cancer Institute of the National Institutes of Health under Award Number P30CA247796. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Institutes of Health or the State of Florida.
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Department of Molecular Genetics and Microbiology, University of Florida, Gainesville, FL, USA
Xzaviar K. Solone
Department of Gastroenterology, University of Florida, Gainesville, FL, USA
Siddhi Chitre
Department of Neurosurgery, University of Florida, Gainesville, FL, USA
Laura Falceto Font
Department of Hematology & Oncology, University of Florida, Gainesville, FL, USA
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Kathryn Stofer
Department of Radiation Oncology, Gainesville, FL, USA
Dietmar W. Siemann
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Xzaviar K. Solone, Siddhi Chitre, Laura Falceto Font, Kimberly N. Espinoza Pereira & Dietmar W. Siemann
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Conception and design of the study, data collection and analysis, and initial manuscript drafting (SC, LF, KP, XS). Overview of IRB approval (KS). The critical review of the manuscript (DS, SC, LF, KP, XS, KS) and all authors provided final approval of the submitted manuscript. SC, LF, KP, and XS contributed equally to the work.
Correspondence to Siddhi Chitre .
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Written informed consent was obtained from all the participant’s parents or legal guardians so their youth could participate in SSTP. To examine course grades, course satisfaction, and pre-post cohort comparisons, we sought non-human exempt status from the University of Florida Institutional Review Board, Protocol #: NH00041514, Approval date: 06/05/2024.
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Solone, X.K., Chitre, S., Font, L.F. et al. A summer course in cancer for high school students-an update on lessons taught and lessons learned. BMC Med Educ 24 , 1020 (2024). https://doi.org/10.1186/s12909-024-06002-z
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Kabardino Balkarian State University was known as KBSU Russia. It was founded in the year 1957. The University is situated at Nalchik, Kabardino-Balkaria, Russia and is one of the largest universities in the North Caucasus to Pursue MBBS in Russia. Kabardino Balkarian State University Russia is a comprehensive university offering a wide range of undergraduate, graduate and postgraduate programs in various fields. The University is Approved by the National Medical Commission of India and the World Health Organization.
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Kursk State Medical University, Russia | |
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Presently, 15,000 students are studying here. Every year, thousands of students enrol in different courses. Moreover, this is an institute offering international education as well. It is quite interesting to note that the students coming for MBBS in Russia at this university get an environment they did not expect.
College summary.
Before we complete the college summary, let us look at the essential details of Kabardino Balkarian State University Russia .
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KBSU Russia | |
Kabardino-Balkaria, Russia | |
1957 | |
Public (Govt.) | |
Altudov Yuri | |
English & Russian | |
Ministry of Health of the Russian Federation | |
MBBS | |
USD: $ 2,640/- (Annually) INR: ₹ 2,19,200/- (Annually) | |
Country- 84 World- 3,437 ( : Unirank) | |
September Intake | |
Yes (Male & Female) | |
Nalchik Airport | |
https://kbsu.ru/ | |
These are the renowned bodies that’ve given a reputation to the Ural State Medical University Russia.
The faculties at Kabardino Balkarian State University Russia differ from one department to another, encompassing various disciplines and specialities.
Faculty of Normal and Pathological Anatomy | Faculty of Normal and Pathological Physiology |
Faculty of Clinical | Faculty of Infectious Diseases |
Faculty of Dermatology | Faculty of Psychiatry |
Faculty of Neurology and Addictions | Faculty of General Practice |
Faculty of Dentistry |
Kabardino Balkarian State University Russia Courses offer quality medical programs under highly qualified faculty and state-of-the-art infrastructure. KBSU Russia is famous for its undergraduate medical programs if you want more details about the MBBS course .
MBBS | 6 Years (English Medium) 7 Years (Russian Medium) |
To get admission to Kabardino Balkarian State University in 2024, Indian students must qualify for the National Eligibility Entrance Exam (NEET).
To secure admission at Kabardino Balkarian State University, prospective students should adhere to the following steps:
In this section, students can check the Kabardino Balkarian State University eligibility criteria for Russia.
Your age should be at least 17 years old on or before 31st December of the admission year. *No Upper Age Limit. | |
Class 12th in Science, with PCB and English subjects from a board recognized by the authorities in India. | |
50% in 10+2 (UR) 45% (SC/OBC/ST) | |
(For Indian Students) | |
Not Required |
Graphical Representation of Eligibility Criteria
Before admission to Kabardino Balkarian State University Russia, please carry all these related documents.
In this section, all the MBBS Students get information about the Kabardino-Balkarian State University MBBS Fees for Indian Students. Check all the relevant queries regarding fees following this page: Low fees for MBBS Colleges in Russia .
Tuition Fees | $ 2,640/- | ₹ 2,19,200/- |
Hostel Fee | $ 120/- | ₹ 9,960/- |
According to Unirank, the Kabardino Balkarian State University University ranking in Russia and all over the world:
Country Ranking | 84 |
World Ranking | 3,437 |
Looking at university ranking one can easily gather some important insights about the university, therefore ranking of the university becomes an important factor for students. Here is some of the details one can infer by looking at the university’s ranking.
Kabardino Balkarian State University Russia Address: Ulitsa Chernyshevskogo, 173, Nalchik, Kabardino-Balkarian Republic, Russia, 360004
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Yes, you can practice in your country after completing your course. You need to clear the NEXT exam for practising medicine in India.
Kabardino Balkarian State Medical University Address is Ulitsa Chernyshevskogo, 173, Nalchik, Kabardino-Balkarian Republic, Russia, 360004.
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The university.
Kabardino-Balkarian State University is one of the well-recognized Russian medical universities established in 1932 in the Nalchik city. The first session had a humble beginning in September 1932 with 120 students and 22 faculty members. The University opened its doors for students from other countries in 1969 and created the Faculty of Work With Foreign Students for dedicated support for international students.
To facilitate modern learning, the University's classrooms are equipped with projectors and video recording facilities. Students are provided access to the Online Learning Management System where they can catch any missed class or revise the previous classes, exchange notes, and ask queries. The scientific library of the University offers a collection of medical resources and study material. More than 30% of the seats in the library are equipped with computer and internet facilities. From the second year, students are also provided hands-on clinical training in affiliated hospitals and clinics.
Kabardino-Balkarian State University is approved by the Medical Council of India (MCI) and offers a 6-Year Program for MBBS in Russia. Students in India, who have qualified NEET, can apply for direct admission to the MBBS Program of Kabardino-Balkarian State University.
Ministry of Science and Higher Education, Russia
World Directory of Medical Schools (WDOMS)
Medical Council of India (MCI)
Educational Commission for Foreign Medical Graduates (ECFMG)
Medical Council of Canada (MCC)
Foundation for Advancement of International Medical Education and Research (FAIMER)
To get admission to the MBBS Program of Kabardino-Balkarian State University, the student must qualify NEET-UG (National Eligibility cum Entrance Test-Undergraduate).
Besides NEET-UG, there is no requirement to go through any additional entrance examination.
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| Mess Charges | Yearly Payments | Mess charges | US$ 1200 per year |
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Mbbs program, admission & support, examination support, student life.
Kabardino-Balkarian State University is one of the well-recognized Russian medical universities established in 1932 in the Nalchik city of Russia. The first session of the University had a humble beginning in September 1932 with a group of 120 students and a team of 22 faculty members.
The University opened its doors for students from other countries in 1969 and created a separate department for support of the international students, named Faculty of Work With Foreign Students. In recognition of its contribution to train international students and strengthening relations of Russia with other nations, Kabardino-Balkarian State University was awarded the Order of Friendship of Peoples in 1982.
To facilitate the involvement of its students in research, the University has a set of medical laboratories and offers research programs in multiple disciplines of medical science. To keep students and members briefed on the latest research and University progress, the University publishes its own newspaper and magazines available to all students in digital format.
To facilitate modern learning, the University's classrooms are equipped with projectors and video recording facilities. Students are provided access to University’s online Learning Management System where they can catch any missed class or revise the previous classes, exchange notes, and ask queries.
For a broader exposure and sharing of knowledge, University organizes inter-university events where students get to interact with each other and work collaboratively on new research projects.
To prepare students for the clinical training, students are provided training in the artificial clinical setting with the help of simulators. From the second year, students are also provided hands-on clinical training in affiliated hospitals and clinics.
For the internationalization of its education system, the University collaborates with multiple institutions and organizations in different countries. In cooperation with other institutions, the University organizes and participates in skill development programs, seminars, conferences, and student exchange programs.
The scientific library of the University offers a collection of medical resources and study material in print as well as electronic formats. To provide students access to online medical journals, more than 30% of the seats are equipped with computer and internet facilities. University’s LMS facilitates a collaborative learning experience for the students and makes sure that they don’t miss anything from the curriculum.
Kabardino-Balkarian State University is listed in the World Directory of Medical Schools (WDOMS) and certified by the Educational Commission for Foreign Medical Graduates (ECFMG), United States of America. Kabardino-Balkarian State University is also approved by the Medical Council of Canada (MCC) and the Medical Council of India (MCI). The University offers a 6-Year Program for MBBS in Russia for local as well as international medical aspirants. Students in India, who have qualified NEET, can apply for direct admission to the MBBS Program of Kabardino-Balkarian State University.
Kabardino-Balkarian State University Chernyshevsky St., 173 Nalchik, 360004, Russian Federation
Kabardino-Balkarian State University offers a 6-Year MBBS Program in the Russian language. For international students, classes for initial years may be organized in English medium.
The Program for MBBS in Russia is focused on building a strong academic base with a pragmatic approach to education and medical research. To provide hands-on clinical experience, the students studying MBBS in Russia are involved in clinical training from the second year of MBBS. While education in classrooms and laboratories helps the students develop academic skills and sound theoretical understanding, clinical training in University-affiliated hospitals help them apply their knowledge into practice.
To get admission to the MBBS Program of Kabardino-Balkarian State University, you can apply online at Rus Education website.
Rus Education is duly authorized by the Russian Centre for Science and Culture (Cultural Department of The Embassy of the Russian Federation in India) to promote Russian Education among Indian Citizens. Rus Education is also an authorized associate of Kabardino-Balkarian State University. We facilitate one-window admission to the MBBS Program of Kabardino-Balkarian State University with no requirement of any donation or capitation and without any entrance examination.
FMGE (Foreign Medical Graduates Examination) Preparation |
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USMLE (United States Medical Licensing Examination) Preparation |
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Kabardino-Balkarian State University marks its student life as interesting, rich, and safe. Well, we would like to add one more thing to that, i.e., fruitful and rewarding.
The University manages a set of seven dormitories to provide comfortable and affordable accommodation for its students.
Students interested in sports can play games of their choice in the sports complex of the University. In the complex, gym facility is also available. So, students who like to workout don’t need a membership of any outside gym in Russia as University’s gym is well-equipped and is available for all University members In the campus area, there is also a beautiful botanical garden where students can go to walk on the grass or sit and relax.
For all-round growth and development, students can take part in social and cultural events organized locally and also participate in University festival competition as well as sports and intellectual games organized throughout the year.
The University promotes a healthy way of life and incorporates various sports and cultural events in the campus life of students. Thanks to the inclusive environment maintained by the University, students from different parts of the world are encouraged to show their unique culture and explore that of others.
For the peer support of the student, the University has a Student Committee which provides help to first-year students regarding hostel facilities, getting familiar with the campus, social support, and organization of leisure events and activities.
For the self-development of the students and to transform them into holistically developed professionals, Student Council engages students into various tasks regarding the functioning of the University and programs targeted for social upliftment and public welfare.
Involvement of students in extracurricular work and charitable activities like health outreach programs, meeting and helping people in need, contributing to a healthy environment, etc. foster holistic development of the students. Living in Nalchik city, which is known for its beautiful mountains, lakes, and waterfalls, students get plenty of opportunities to relax and regain their energy. In Nalchik, students can explore museums, art galleries, classic theatres, or attend concerts. In the well-connected city, students can travel by buses, taxis, and trolleys.
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A great way to boost your CV is by doing summer research programs. Plus, you can gain more experiences to talk about during med-school interviews. And you may even earn some money to pay off your student loans. Since research is so critical to medicine overall, it is good for premeds to get early exposure to research.
Summer Program in Cancer Research - (Program dates: June 6 - August 12) University of Texas Medical Branch - Galveston, TX. Neuroscience Summer Undergraduate Research Program - (Deadline: February 1-15, Program dates: June 6 - August 12) University of Texas School of Medicine at San Antonio - San Antonio, TX.
Students also can present their work in oral or poster format at the conclusion of the program. In addition, SIP students often go on to present their summer research at national conferences throughout the year. The program runs approximately ten weeks and student stipends range from $3,000 - $5,500. Housing is provided at no cost to participants.
Summer Research Opportunities. Baylor College of Medicine. Summer Medical and Research Training Program. DeBakey Summer Surgery Program. University of California, Berkeley. Haas Scholars Program. National Science Foundation Research Experience for Undergraduates. Summer Undergraduate Research Fellowship. Summer Research Program at CHORI.
Program start will be variable based on your research placement. There is one application for both the premedical and research programs. Link to the application. The Stanford Summer Community College Research Program (SSCCRP) application opens on December 1, 2023, 11:59pm and closes on March 1, 2024, 11:59pm.
The purpose of these programs is to expose ambitious, talented college students to graduate-level medical or doctoral research, usually over the course of 6-12 weeks over the summer. These programs generally provide generous stipends, as well as free housing and compensation for travel expenses (unless the programs are online due to COVID).
The Travelers Summer Research Fellowship Program is designed to provide 25-27 premedical students with experiential research training, meaningful insights into the field of medicine, and enhanced knowledge of the conditions and policies impacting the health of traditionally underserved populations. By engaging in laboratory or clinical research ...
SHARE: Listing of summer programs for undergraduates interested in pursuing careers in medical research. Please contact programs directly regarding summer research opportunities. Albert Einstein College of Medicine. Bronx, NY. Summer Undergraduate Research Program. Augusta University -The Graduate School & Medical College of Georgia.
SHURP is a ten-week summer program offered by the Division of Medical Sciences at Harvard Medical School. It seeks to provide undergraduate students from underrepresented and disadvantaged backgrounds with an opportunity to gain training and mentorship in scientific research. Participants will: Conduct 10 weeks of paid, scholarly research under ...
The Summer Student Pre-Med & Research Program at Hartford Hospital offers a unique clinical research opportunity for third year college students pursuing careers in medicine. The program offers the student with an introduction to research methodology, patient care, and medical ethics as well as exposure to a broad spectrum of healthcare ...
Opportunities for Pre-Med Students. Our department has developed internships for college students who are underrepresented in medicine (UIM), to increase access and exposure to healthcare careers, including in neurosurgery. NOTE: Due to COVID, in-person research opportunities may be possible, while Clinical and Operating Room observations are ...
See the complete list of URS programs. Listing of undergraduate summer research opportunities across STEM (Science, Technology, Engineering & Math) and Healthcare disciplines at Duke University. H=Housing provided, $$= Stipend provided, and T=Travel Funding Available.
Summer Honors Undergraduate Research Program (SHURP) is a 10-week summer research program primarily for college students belonging to groups that are underrepresented in the sciences. In addition to laboratory-based research with Harvard Medical School faculty, the program includes research and career development seminars and a peer-mentoring ...
Our application for our summer 2024 program will be open December 15, 2023, through January 19, 2024. Head to our jobs page to apply. For more information about the Northwestern Medicine Pre-Med Internship Program, contact us at [email protected].
Pre-Med Enrichment Program (PREP) is a 6-week intensive summer program that provides pre-med students with the means to strengthen their ability and readiness to study medicine. Full participation in the PREP program allows participants to enhance their chances of being accepted to medical school and succeeding once there.
The Summer Undergraduate Research Program application is open to U.S. citizens and permanent residents. We welcome applications from mature, well-qualified undergraduates who have completed their sophomore or junior year of college. To qualify, you should have completed at least one full semester of bench laboratory research.
Summer Scholars is a Harvard Medical School summer internship program for motivated undergraduates with a strong interest in pursuing graduate studies focused on molecular mechanisms in biology. The program offers students the opportunity to gain experience in hands-on laboratory research; to interact with faculty, postdoctoral fellows ...
Office of Clinical Research Training and Medical Education; Clinical Center Grand Round Lectures; Graduate Medical Education; Medical Research Scholars Program; Postbaccalaureate IRTA Program ... Interested in Applying to the Summer Internship Program. To be eligible, students must meet the following criteria: U.S. citizens or permanent ...
The 30th Annual Pritzker Summer Research Program proved to be another successful year of scholarship for a large number of second-year students. Funded in part by the NHLBI, NIA, NCI, NIDDK(DULCE) the Bucksbaum Institute for Clinical Excellence, and The Center for Healthcare Delivery Science.
Background Previous graduate students and postdoctoral associates from the University of Florida Health Cancer Center, in partnership with the University of Florida Student Science Training Program, implemented a cooperative learning curriculum, providing high school students with a broad overview of cancer topics over six weeks over the summer. To address discussions necessitated by the COVID ...
Fee Structure 2024-25. In this section, all the MBBS Students get information about the Kabardino-Balkarian State University MBBS Fees for Indian Students. Check all the relevant queries regarding fees following this page: Low fees for MBBS Colleges in Russia. Particulars.
Chernyshevsky St., 173 Nalchik, 360004, Russian Federation. Kabardino-Balkarian State University offers a 6-Year MBBS Program in the Russian language. For international students, classes for initial years may be organized in English medium. The Program for MBBS in Russia is focused on building a strong academic base with a pragmatic approach to ...
Kabardino-Balkaria State University formed in 1957 in Nalchik on the basis of Pedagogical college. On 50th anniversary Kabardino-Balkaria State University received Certificate of Merit and Medal from State Duma for its outstanding services and achievements. In 2008, the Kabardino-Balkaria State University enlisted in 100 best universities in ...
Currently, Kabardino-Balkaria State University holds the 11th place among classical universities in the Russian Federation. The students are offered to improve their knowledge in huge scientific library with study hall. There are 67 departments at the University. The Faculty of General Medicine consists of 17 departments.