Kevin Bender is professor of neurology at the University of California, San Francisco. His lab focuses on understanding how the brain encodes information at the synaptic, cellular and network level. Work primarily revolves around understanding how ion channels and modulation of ion channels contribute to these processes in health and in neurodevelopmental and neuropsychiatric conditions. This includes studies related to neurodevelopmental channelopathies, for which he is grateful to be able to work with close colleagues and partners from academia, industry and patient advocacy groups.
Kevin Bender
Professor of neurology
University of California, San Francisco
From this contributor
Should I work with these people? A guide to collaboration
Selected articles
- “Impaired cerebellar plasticity hypersensitizes sensory reflexes in SCN2A-associated ASD” | Neuron
- “Physical and functional convergence of the autism risk genes Scn2a and Ank2 in neocortical pyramidal cell dendrites” | Neuron
- “Arrestin-3 Agonism at Dopamine D3 Receptors Defines a Subclass of Second-Generation Antipsychotics That Promotes Drug Tolerance” | Biological Psychiatry
- “The Autism-Associated Gene Scn2a Contributes to Dendritic Excitability and Synaptic Function in the Prefrontal Cortex” | Neuron
- “Periadolescent Maturation of GABAergic Hyperpolarization at the Axon Initial Segment” | Cell Reports
Explore more from The Transmitter
Prevalence of profound autism declines with new definition
The updated, more precise definition used in a CDC study includes adaptive scores.
Prevalence of profound autism declines with new definition
The updated, more precise definition used in a CDC study includes adaptive scores.
Is it time for neuroscience to shift its focus from a computational mind to a navigating mind?
Andrea Hiott explains her navigational approach to the mind, and why now is the time to embrace seemingly paradoxical findings in neuroscience.
Is it time for neuroscience to shift its focus from a computational mind to a navigating mind?
Andrea Hiott explains her navigational approach to the mind, and why now is the time to embrace seemingly paradoxical findings in neuroscience.
Human brain organoids come of age—but still have room to grow
The U.S. government has touted organoids as an alternative to animals for studying the brain. The model has improved since its debut in 2013, but scientists are still working to overcome key limitations: immaturity, consistency and the lack of vascularization.
Human brain organoids come of age—but still have room to grow
The U.S. government has touted organoids as an alternative to animals for studying the brain. The model has improved since its debut in 2013, but scientists are still working to overcome key limitations: immaturity, consistency and the lack of vascularization.