The Metabolic Inquiry and Cellular Engineering (MICE) Lab uses systems approaches to investigate complex biological systems at all levels of molecular heirarchy inherent in the central dogma. The intersection of multiple processes associated at the molecular level will allow delineation of mechanisms of function and emergent properties at the level of a single cell or population of cells.
We focus on three major areas of research.
We work on investigating the emergent property of antibiotic and chemotherapeutic drug resistance by probing cellular processes of growth, respiration and metabolism in response to drugs and other selection pressures. We use Glioblastoma multiforme a type of brain cancer and a zoonotic pathogen Chromobacterium violaceum as model systems for studying resistance.
We work on making value added products ranging from those indigenous, heterogenous or synthetic to host metabolism. Examples including drug molecules like violacein, kanamycin, penicillins and polymers like polyhydroxyalkanoates.
We build genome-scale metabolic network models to compute cell phenotypes using constraints-based flux balance modeling techniques. We also work on developing algorithms to incorporate experimental data as constraints in flux balance models. Of special interest is the problem of incorporating transcriptomic data as constraints for metabolic models.
We strive to practice model-driven/model-integrated science by validation of in silico discoveries experimentally at different levels of molecular organization in both prokaryotic and eukaryotic systems.
We are always seeking highly motivated individuals for exciting projects in our laboratory. Our lab values the career development of each member and provides ample opportunities for them to attend academic conferences or receive scientific training. If interested please send your CV to micelabatncl@gmail.com or contact Anu Raghunathan at the address below to explore potential opportunities.
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