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Dr. Wernig is a Professor in the Departments of Pathology and Chemical and Systems Biology and Co-Director of the Institute for Stem Cell Biology and Regenerative Medicine at Stanford University. He graduated with an M.D. Ph.D. from the Technical University of Munich where he trained in developmental genetics in the lab of Rudi Balling. After completing his residency in Neuropathology and General Pathology at the University of Bonn, he then became a postdoctoral fellow in the lab of Dr. Rudolf Jaenisch at the Whitehead Institute for Biomedical Research/ MIT in Cambridge, MA. He received an NIH Pathway to Independence Award, the Cozzarelli Prize for Outstanding Scientific Excellence from the National Academy of Sciences U.S.A., the Outstanding Investigator Award from the International Society for Stem Cell Research, the New York Stem Cell Foundation Robertson Stem Cell Prize, and more recently was awarded the Ogawa-Yamanaka Stem Cell Prize presented by the Gladstone Institutes and has been named a HHMI Faculty Scholar.Dr. Wernig’s lab is interested in pluripotent stem cell biology and the molecular determinants of neural cell fate decisions. His laboratory was the first to generate functional neuronal cells reprogrammed directly from skin fibroblasts, which he termed induced neuronal (iN) cells. The lab is now working on identifying the molecular mechanisms underlying induced lineage fate changes, the phenotypic consequences of disease-causing mutations in human neurons and other neural lineages as well as the development of novel therapeutic gene targeting and cell transplantation-based strategies for a variety of monogenetic diseases.
Our laboratory is generally interested in the molecular mechanisms that determine specific cell fates. <br/><br/>Recently, we have identified a pool of transcription factors that are sufficient to convert skin fibroblasts directly into functional neuronal cells that we termed induced neuronal (iN) cells. This was a surprising finding and indicated that direct lineage reprogramming may be applicable to many somatic cell types and many different directions. Indeed, following our work others have identified transcription factors that could induce cardiomyocytes, blood progenitors, and hepatocytes from fibroblasts.<br/><br/>We are now focussing on two major aspects of iN and iPS cell reprogramming:<br/>(i) we are fascinated by the puzzle how a hand full of transcription factors can so efficiently reprogram the entire epigenome of a cell so that it changes identity. To that end we are applying genome-wide expression analysis, chromatin immunoprecipitation, protein biochemistry, proteomics and functional screens.<br/>(ii) it is equally exciting to now use reprogramming methods as tools to study or treat certain diseases. iPS cells have the great advantage that they can easily be genetically manipulated rendering them ideal for treating monogenetic disorders when combined with cell transplantation-based therapies. In particular we are working on Dystrophic Epidermolysis Bullosa in collaboration with Stanford's Dermatology Department. An exciting application of iN cell technology will be to try modeling neurological diseases in vitro. We perform both mouse and human experiments hoping to identify quantifiable phenotypes correlated with genotype and in a second step evaluate whether this assay could be used to discover novel drugs improve the disease progression.
Characteristics of Patients With Recessive Dystrophic Epidermolysis Bullosa
Recessive dystrophic epidermolysis bullosa (RDEB) is a disease caused by genetic mutations in
the gene for type VII collagen. Patients with RDEB develop large, severely painful blisters
and open wounds from minor trauma to their skin. We are screening subjects with RDEB to
evaluate characteristics of the subjects and their cells in order to develop new strategies
of therapy and determine whether subjects could be candidates for treatment studies.
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