Kay Tye (Salk): The neural representations of social and emotional processes

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Monday, February 14, 2022
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1:00pm to 2:00pm PST
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The Stanford Center for Mind, Brain, Computation and Technology
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Kay Tye, PhD

Systems Neurobiology Laboratory
Salk Institute for Biological Studies

Kay M. Tye received her bachelor’s degree in Brain and Cognitive Sciences from MIT in 2003 and earned her Ph.D. in 2008 at UCSF with Patricia Janak.  Her thesis work was supported by the National Science Foundation and recognized with the Lindsley Prize in Behavioral Neuroscience as well as the Weintraub Award in Biosciences.  She completed her postdoctoral training with Karl Deisseroth at Stanford University in 2011, with support from an NRSA from NIMH.  She became an Assistant Professor at MIT in 2012, and has since been recognized with the NIH Director’s New Innovator Award, Technology Review’s Top 35 Innovators under 35, and has been named a Whitehall, Klingenstein and Sloan Foundation Fellow. In 2019 Kay became Professor in the Systems Neurobiology Laboratory and Wylie Vale Chair at the Salk Institute for Biological Studies.

Curriculum Vitae

The neural representations of social and emotional processes

How does our brain rapidly determine if something is good or bad? How do we know our place within a social group? How do we know how to behave appropriately in dynamic environments with ever-changing conditions?

The Tye Lab is interested in understanding how neural circuits important for driving positive and negative motivational valence (seeking pleasure or avoiding punishment) are anatomically, genetically and functionally arranged.  We study the neural mechanisms that underlie a wide range of behaviors ranging from learned to innate, including social, feeding, reward-seeking and anxiety-related behaviors. We have also become interested in “social homeostasis” -- how our brains establish a preferred set-point for social contact, and how this maintains stability within a social group.  How are these circuits interconnected with one another, and how are competing mechanisms orchestrated on a neural population level? We employ optogenetic, electrophysiological, electrochemical, pharmacological and imaging approaches to probe these circuits during behavior.

Related Papers

[1] Padilla-Coreano N, Batra K, Patarino M, Chen Z, Rock R, Zhang R, Hausmann S, Weddington J, Patel R, Zhang Y, Fang HS, Keyes L, Liebster A, Matthews G, Curley J, Fiete I, Lu C, Tye KM. (2020). A cortical-hypothalamic circuit decodes social rank and promotes dominance behavior. Nature Portfolio. 10.21203/rs.3.rs-94115/v1

[2] Siciliano CA, Noamany H, Chang CJ, Brown AR, Chen X, Leible D, Lee JJ, Wang J, Vernon AN, Vander Weele CM, Kimchi EY, Heiman M &; Tye KM. (2019). A cortical-brainstem circuit predicts and governs compulsive alcohol drinking. Soc Neuroscience, 366 (6468),1008–1012. https://www.science.org/doi/10.1126/science.aay1186