Dr. Camprodon is interested in understanding circuit properties of human neural networks and how maladaptive plastic changes lead to neuropsychiatric disorders. The scope of his research includes basic, translational and clinical projects focused on...
Our translational research focuses on applying electrophysiological measures, imaging modalities, and innovative bioengineering approaches to diagnose and treat neuromuscular disorders. These techniques include electrical impedance myography...
Our lab’s research focuses on experimental and computational approaches to understanding the neural correlates of consciousness in humans—specifically how sleep affects the brain. With our expertise in state-of-the-art quantitative methods, we develop...
The Cox lab is investigating the role of the gut microbiota in neurologic diseases, including Alzheimer's disease, Parkinson’s disease, amyotrophic lateral sclerosis, and multiple sclerosis. The gut microbiota is composed of trillions of bacteria, fungi...
Our laboratory is directed toward both 1) understanding molecular controls and mechanisms over neuron sub-type development, diversity, axon guidance-circuit formation, and degeneration-disease in the cerebral cortex (e.g. corticospinal motor neurons -...
The mission of the Greka laboratory is to define fundamental aspects of membrane protein biology and dissect mechanisms of cellular homeostasis. The laboratory complements this cell biology-focused program with tools from molecular biology, genomics...
The human brain is a highly organized structure containing myriad axon tracts that follow precise pathways and make predictable connections, yet only a handful of human disorders clearly resulting from errors in axon growth and guidance have been...
We seek to understand the mechanisms by which heterogenous cell types orchestrate synchronous network patterns for brain computations as fundamental as memory, which may be key to understanding the origins of pathological hypersynchrony in epilepsy...