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Kate Hong -

Kate Hong

Associate Professor

Kate Hong's research is in understanding the organization and function of neural circuits that underlie sensory-guided behaviors.


Expertise

Topics:  Behavioral Methods, Characterization of Neural Circuits, Computational, Mathematical & Statistical Methods, Diseases & Disorders, Physiological & Anatomical Methods, Sensation & Perception, Systems Neuroscience

Kate Hong's research interests include systems neuroscience, characterization of neural circuits, diseases & disorders, sensation & perception, behavioral methods, computational, mathematical & statistical methods and physiological & anatomical methods. Her work combines animal behavior, high-speed imaging, motion tracking, in vivo electrophysiology and optogenetic methods to determine how cortical and subcortical activity cooperate to mediate (tactile) sensory-motor transformations in parallel, providing a foundation for understanding behavioral deficits and recovery mechanisms associated with cortical injury.

Media Experience

Biology Professor Receives Grant for Autism Research  — Mellon College of Science
Kate Hong, an assistant professor of biological sciences and a member of Carnegie Mellon University's Neuroscience Institute, has received a Simons Foundation Autism Research Initiative (SFARI) grant for research into the interaction between sensory processing and decision-making in individuals with autism spectrum disorder (ASD).

CMNI Welcomes Two New Faculty: Kate Hong and Matt Smith  — Carnegie Mellon Neuroscience Institute
The Carnegie Mellon Neuroscience Institute is excited to welcome two new faculty members on board: Kate Hong, who will join in January 2020 as an Assistant Professor jointly in CMNI and Biological Sciences; and Matt Smith, who will also join in January 2020 as an Associate Professor with tenure in CMNI and Biomedical Engineering.

Education

Ph.D., Neurobiology, Harvard University
Sc.B., Biochemistry, Brown University

Accomplishments

Molecular Basis of Cognition Team Award (2022)

Links

Articles

Effects of arousal and movement on secondary somatosensory and visual thalamus —  Elife

Sensorimotor strategies and neuronal representations for shape discrimination —  Neuron

A rapid whisker-based decision underlying skilled locomotion in mice —  Elife

Deep and superficial layers of the primary somatosensory cortex are critical for whisker-based texture discrimination in mice —  BioRxiv

Primary somatosensory cortex is essential for texture discrimination but not object detection in mice —  IBRO Reports

Photos