Natal long-fingered bat embryo (Miniopterus natalensis) stained to highlight bone (red) and cartilage (blue).
Researchers in the laboratory of UCSF School of Pharmacy faculty member Nadav Ahituv, PhD, study the roles of gene regulatory elements—DNA segments that tell genes when, where, and to what extent to turn on and off—including in human conditions ranging from limb malformations to epilepsy and autism.
The next frontier in developing therapies for cancer and other diseases could come through studying organ development or tumor growth in living humans. Problem is, there’s no ethical way of doing that using current technology.
Zev Gartner, PhD, has focused on the next best thing: His lab is...
I retired from full-time service at UCSF at the end of June, 2012. However, I went on Recall status a month later to do research, which diminishes each year. I needed to finish some projects that were still funded via grants during the initial year and continue with another funded project...
My laboratory is working to understand how cells assemble into multicellular tissues, how the structure of tissues controls the behavior of individual cells, and how changes to tissue structure drive the progression of diseases like cancer. Toward these goals, we build, perturb, and model human...
Synthetic biologist and UCSF School of Pharmacy faculty member Christopher Voigt, PhD, and Jeffrey Tabor, a postdoctoral scholar in Voigt's laboratory, discuss the field and promise of synthetic biology in this July 21, 2009 KQED television segment.
(left to right) Research team members Daniel Widmaier, Travis Bayer, principal investigator Christopher Voigt, Ethan Mirsky, and Karsten Temme in the Voigt Lab at the University of California, San Francisco Mission Bay Campus. Missing from the photo is Daniel Santi.
A chemical precursor molecule of gasoline can be produced from biomass and salt, according to research by UCSF School of Pharmacy's Christopher Voigt, PhD, and UCSF colleagues.
Research by Nadav Ahituv, PhD, faculty member in the UCSF School of Pharmacy, shows that laboratory mice that had specific sequences of their DNA removed eat, grow, and reproduce normally.
