Copper plays an essential role in human physiology. It serves as a cofactor to key metabolic enzymes that are required for respiration, neurotransmitter biosynthesis, detoxification of radicals, blood clotting, connective tissue formation, and many others processes. Through currently unknown...
Our lab seeks to understand mechanisms employed by cells and tissues to maintain metabolic homeostasis. We are broadly interested in how secreted hormones control various aspects of sugar and fat metabolism. Our current efforts centered on addressing how fat...
Phospholipids are the building blocks of biological membranes. Membranes leverage the amphipathic chemistry of lipids to form bilayers that encapsulate a cell and its multitude of organelles. Such compartmentalization has enabled cells to separate biochemical pathways, establish specialized functions...
My laboratory is actively engaged in discovering and defining cell signaling pathways that lead to either neuronal survival or neuronal death. We have characterized neuronal injury and survival pathways in fly, mouse and human models of Parkinson’s disease and...
The Rao laboratory studies the role of novel ion transporters in human health and disease. One project focuses on the calcium signaling in breast cancer. We showed that an isoform of the secretory pathway Ca2+-ATPase, SPCA2, interacts with ion...
Our lab is interested in the role that chemosensation plays in regulating physiological processes, particularly in the kidney and the cardiovascular system. We have found that sensory receptors (olfactory receptors, taste receptors, and other G-protein coupled receptors) are expressed...
Chloride is the most abundant free negatively charged ion in the body. Chloride channels are cell-membrane embedded proteins, allowing the movement of chloride in and out of the cells. Defects in chloride fluxes are responsible for many human disorders....