* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download Text - Department of Physiology, UCLA
Psychoneuroimmunology wikipedia , lookup
Subventricular zone wikipedia , lookup
Neurophilosophy wikipedia , lookup
Synaptic gating wikipedia , lookup
Brain Rules wikipedia , lookup
Central pattern generator wikipedia , lookup
Feature detection (nervous system) wikipedia , lookup
Neurogenomics wikipedia , lookup
Neural engineering wikipedia , lookup
Neuroethology wikipedia , lookup
Biochemistry of Alzheimer's disease wikipedia , lookup
Neural coding wikipedia , lookup
Biological neuron model wikipedia , lookup
Development of the nervous system wikipedia , lookup
Electrophysiology wikipedia , lookup
Neuroplasticity wikipedia , lookup
Aging brain wikipedia , lookup
Neuroanatomy wikipedia , lookup
Activity-dependent plasticity wikipedia , lookup
Biology and consumer behaviour wikipedia , lookup
Nervous system network models wikipedia , lookup
Neuroinformatics wikipedia , lookup
Multielectrode array wikipedia , lookup
Neural oscillation wikipedia , lookup
Neuroeconomics wikipedia , lookup
Spike-and-wave wikipedia , lookup
Neural correlates of consciousness wikipedia , lookup
Premovement neuronal activity wikipedia , lookup
Pre-Bötzinger complex wikipedia , lookup
Nonsynaptic plasticity wikipedia , lookup
Haemodynamic response wikipedia , lookup
G protein-gated ion channel wikipedia , lookup
Molecular neuroscience wikipedia , lookup
Optogenetics wikipedia , lookup
Neuropsychopharmacology wikipedia , lookup
Electrical activity underlies most aspects of brain function. Our research focuses on the voltage-gated ion channels that confer electrical excitability on neurons and the consequences of changes in channel activity for neuronal firing, circuit function, behavior, and neuronal viability during development and aging. Work in our lab spans many levels of analysis, from the molecular to the behavioral. We are studying how voltage controls the activity of K+ channels, how changes in channel function or expression affect the firing patterns of neurons and the emergent properties of neuronal circuits, and how altering neuronal excitability affects behavior. We are also investigating the relationship between excitability and neuronal survival at different stages of life. We use a wide variety of experimental approaches to address these issues, including electrophysiology, imaging, biochemistry, molecular biology, genetics, and behavioral analysis. In the past few years, we have adopted the zebrafish, Danio rerio, as our main model system for integrative analysis. We also use Xenopus oocytes to investigate channel function and primary cultures of rodent neurons to explore the relationship between channel activity and neuronal function and viability. We are always looking for bright, hard-working individuals who want to work in a collaborative environment focusing on mechanistic, quantitative approaches to key questions in neuroscience.