Daniel Baugh Institute
for Functional Genomics/Computational Biology
The Daniel Baugh Institute (DBI) for Functional Genomics/ Computational Biology has been established in the Department of Pathology, Anatomy and Cell Biology, Thomas Jefferson University, to provide an interdisciplinary base for research and education in these rapidly evolving fields. Research interests of the group center on the development and use of quantitative system-wide "omic" datasets towards integrative modeling and computational analysis of the dynamics of biological systems.
Our focus is the development of mammalian systems biology to study the multi-scale regulatory networks in the context of adaptation in central autonomic control circuits, dysfunction of cardio-respiratory regulation, alcoholic liver disease and liver repair, and stem cell differentiation. In order to study intra- and inter-cellular networks, we employ genomic and other "omic" technologies to acquire datasets suitable for analyses to identify variables and relationships that provide a basis for modeling and simulation of multi-scale system dynamics. We develop bioinformatics tools to improve our ability to derive networks, pathways and relationships subserving cellular processes. We bring principles of control and systems theory as well as probabilistic/statistical techniques to bear on the analysis of biological processes.
We seek funding as an Institute for interdisciplinary team oriented projects. Ongoing projects are funded by National Institute of General Medical Sciences, National Heart Lung and Blood Institute, and National Institute on Alcohol Abuse and Alcoholism.
Daniel Baugh Institute
- Pattern analysis uncovers a chronic ethanol-induced disruption of the switchlike dynamics of C/EBP-β and C/EBP-α genome-wide binding during liver regeneration
- Single-cell transcriptional analysis reveals novel neuronal phenotypes and interaction networks involved in the central circadian clock
- Systemic leukotriene B
4receptor antagonism lowers arterial blood pressure and improves autonomic function in the spontaneously hypertensive rat
- Computational Modeling of Spatiotemporal Ca2+ Signal Propagation Along Hepatocyte Cords
- Integrated live imaging and molecular profiling of embryoid bodies reveals a synchronized progression of early differentiation