Work with a team on a simulated patient case, run microbiological and biochemical tests, debate treatment options and navigate the patient-doctor relationship. Learn about heart anatomy and function through a hands-on pig heart dissection.
- Heart (anatomy, function, and disease)
- Microbiological and Biochemical tests
- Equity in medicine
- Patient-doctor relationship
- Didactics workshops, and laboratory activities including anatomical dissection, microbiology and biochemistry
- 8 a.m. – Breakfast
- 9 a.m. – Simulated patient case
- 12 p.m. – Lunch & free time
- 1 p.m. – Debate treatment options
- 5 p.m. – Dinner
- 6:30 p.m. – Activities / recreation / free time
Options could include: beach volleyball, Asheville Tourists game, observatory, game night, movie
- 11 p.m. – Lights out
- June 18 – June 23, 2023 – PROGRAM FILLED – REGISTER FOR THE WAITLIST
- Price includes lodging, meals, all course materials, activities, and excursions
- A $500 deposit is due upon registration with remaining balance due by May 1, 2023. Click here to see our cancellation policy
- Students reside in campus residence hall and dine in campus dining hall
- Enrollment is open until spaces are filled
- Registration is through the Camp Doc platform. Detailed registration instructions can be found here
Amanda Maxwell M.D.
Dr. Maxwell is a pre-health Professions advisor and committee coordinator. She earned a B.A. in chemistry from UNC Asheville and an M.D. from UNC Chapel Hill. Dr. Maxwell trained in rural family medicine and has been involved with multiple international medical programs to address different aspects of health. These experiences include a position as an HIV educator in rural primary schools in Malawi, assisting an indigenous midwife in Guatemala, co-founding a program to provide HIV and cardiovascular health screenings, along with education and risk reduction in rural Mexico. Dr. Maxwell has been teaching in the Chemistry and Health and Wellness departments at UNC Asheville since 2015, and coordinates the pre-health advising program, professional speakers, and volunteer/internship experiences for our pre-health professional students.
Ryan Steed, Ph.D.
Dr. Steed has been teaching chemistry and biochemistry at UNC Asheville since 2016. He earned a Ph.D. in biochemistry from the University of Wisconsin-Madison, where he studied the mechanism of ATP synthase, an essential protein complex involved in energy conversion in all cells. Afterward, he did post-doctoral research at Vanderbilt University on the biochemistry and biophysics of multi drug resistance. Before coming to UNC Asheville, Dr. Steed taught for two years at Carleton College in Minnesota, including a summer pre-college program that involved students in a laboratory project on biological energy conversion. At UNC Asheville, Dr. Steed and his students are continuing research on the mechanism of ATP synthase with the support of the National Institutes of Health and helping to develop and test antibiotics that target ATP synthase of pathogenic bacteria.
Melinda Grosser, Ph.D.
Dr. Melinda Grosser has been an Assistant Professor of Biology at UNC Asheville since August 2019. She earned her doctorate in Microbiology and Immunology at the University of North Carolina Chapel Hill in 2016. Her dissertation work in Dr. Anthony Richardson’s lab focused on physiological mechanisms of Staphylococcus aureus resistance to innate immune effectors. She then completed postdoctoral research in Dr. Suzanne Fleiszig’s lab at the University of California Berkeley School of Optometry where she studied mechanisms of bacterial pathogenesis during Pseudomonas aeruginosa corneal infections. She teaches undergraduate courses including Microbiology, Molecular Biology, and Experimental Design, Presentation, and Analysis. In her research lab, she leads a team of undergraduates through projects that answer questions about how pathogenic bacteria, especially S. aureus, adapt to harsh conditions imposed by the innate immune system during infection. Her upper-level lab courses involve students in research projects such as the identification and characterization of soil isolates that produce bioactive compounds, or construction of CRISPR interference systems to knock down essential gene expression in bacteria.
Questions? Please contact us at firstname.lastname@example.org.