The University of Virginia consistently ranks as one of the top public universities in the nation. One of its strengths is biomedical research where it has a traditional strength in the areas of cell and molecular biology. For 29 years the interdisciplinary Cell and Molecular Biology Graduate Program (CMB), whose faculty derives from 10 degree-granting departments and programs, has been bringing together the best biomedical graduate students and faculty from around the campus to generate a training forum that complements the classroom and laboratory experience. Students join the program in their second year, are supported by the training grant for two years, and remain associated with the program until they graduate. The training focuses on the second and third years of Ph.D. training when students are learning to apply class knowledge towards independent thinking and practical use of the scientific method. The CMB program seeks to intensify this transformative period by nurturing the students through a series of poster sessions, data clubs, mixers, and symposia to expose the students to outstanding multi-disciplinary science from around the university. They also learn to present their research and take ownership of their scientific accomplishments. The success of our trainees shows that the CMB program prepares them to be leaders of biomedical sciences in both academia and industry.
The biomedical sciences will continue to have an increasing role in both improving health as well as acting as an engine of economic growth, so it is central to America's future to train the next generation of biomedical scientists. At the center of the biological revolution has been the understanding of basic cell mechanics using cell and molecular biology techniques. For 28 years the Cell and Molecular Biology training program at the University of Virginia has turned out leaders in biological research that populate laboratories in companies and universities throughout the country. We have continued to modernize our Ph.D. training program and propose to continue this proud training tradition.
Blackburn, Matthew R; Hubbard, Caitlin; Kiessling, Volker et al. (2018) Distinct reaction mechanisms for hyaluronan biosynthesis in different kingdoms of life. Glycobiology 28:108-121 |
Sanchez, Jacint G; Sparrer, Konstantin M J; Chiang, Cindy et al. (2018) TRIM25 Binds RNA to Modulate Cellular Anti-viral Defense. J Mol Biol 430:5280-5293 |
Przanowski, Piotr; Wasko, Urszula; Zheng, Zeming et al. (2018) Pharmacological reactivation of inactive X-linked Mecp2 in cerebral cortical neurons of living mice. Proc Natl Acad Sci U S A 115:7991-7996 |
Sutcliffe, Matthew D; Tan, Philip M; Fernandez-Perez, Antonio et al. (2018) High content analysis identifies unique morphological features of reprogrammed cardiomyocytes. Sci Rep 8:1258 |
Grant, Margaret J; Loftus, Matthew S; Stoja, Aiola P et al. (2018) Superresolution microscopy reveals structural mechanisms driving the nanoarchitecture of a viral chromatin tether. Proc Natl Acad Sci U S A 115:4992-4997 |
Maqani, Nazif; Fine, Ryan D; Shahid, Mehreen et al. (2018) Spontaneous mutations in CYC8 and MIG1 suppress the short chronological lifespan of budding yeast lacking SNF1/AMPK. Microb Cell 5:233-248 |
Medlock, Gregory L; Carey, Maureen A; McDuffie, Dennis G et al. (2018) Inferring Metabolic Mechanisms of Interaction within a Defined Gut Microbiota. Cell Syst 7:245-257.e7 |
Carey, Maureen A; Covelli, Vincent; Brown, Audrey et al. (2018) Influential Parameters for the Analysis of Intracellular Parasite Metabolomics. mSphere 3: |
Cheng, Irene; Jin, Lucy; Rose, Lucy C et al. (2018) Temporally restricted death and the role of p75NTR as a survival receptor in the developing sensory nervous system. Dev Neurobiol 78:701-717 |
Carey, Maureen A; Papin, Jason A (2018) Ten simple rules for biologists learning to program. PLoS Comput Biol 14:e1005871 |
Showing the most recent 10 out of 189 publications