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Past Events

Image Gender Inclusion in Neuroscience logo, a blue circle with a teal outline of a brain and text "Gi^2N" where the 2 is as the dot on an i
Mar 13
End of Quarter Social
Gender Inclusion in Neuroscience (GiiN)
Image Photo of Dr. Jen Hoy
Mar 13
Jen Hoy, PhD
Associate Professor
Internal State-Dependent Modulation of Natural Pursuit Behaviors

Studying the neural basis of prey catching behavior across species for over 60 years has significantly advanced our understanding of the most conserved aspects of visual system function. Our team builds upon this important foundation to understand how fundamental visual processes, such as motion-triggered visual orienting, evolve across species and are modulated within species by life-stage and/or reproductive status. Towards this goal, we primarily study the neural basis of motion- and prey-triggered natural visual orienting behavior in the mouse model. Our specific aims are to understand the neural circuit subcortical mechanisms that critically regulate adaptive variations in these behaviors that depend on developmental stage, sex and hunger drive. Predatory behaviors and related visual orienting, are strategically regulated across species by these internal “states” in particular across a broad range of species from birds and bats to primates.

www.hoylab.com

Mar 11
Brett Emanuel
TBD
Image Gender Inclusion in Neuroscience logo, a blue circle with a teal outline of a brain and text "Gi^2N" where the 2 is as the dot on an i
Mar 7
General Meeting
Gender Inclusion in Neuroscience (GiiN)
Image Portrait of Dr. Hong Wei Dong, UCLA
Mar 6
Hong Wei Dong, MD, PhD
Professor
Neural Networks of the Cortico-Basal Ganglia-Thalamic System
Image Gender Inclusion in Neuroscience logo, a blue circle with a teal outline of a brain and text "Gi^2N" where the 2 is as the dot on an i
Feb 28
General Meeting
Gender Inclusion in Neuroscience (GiiN)
Image Portrait of Dr. Kevin Franks
Feb 27
Kevin Franks, PhD
Associate Professor of Neurobiology
Neural Circuits for Cortical Odor Coding

Mice rely on their sense of smell to locate food, attract mates, and evade predators. I will briefly discuss how odor identity and intensity are encoded in the mouse olfactory (piriform) cortex and how these representations remain consistent across concentrations, focussing on the neural circuit mechanisms that underlie these operations. Then, I will share recent findings from our lab that reveal how respiration coordinates all cortical odor responses, uncovering a novel framework for the logic of cortical odor coding.

The Franks Lab

Feb 25
Daniel Hulsey
Assessing cortical oscillations with widefield imaging
Image Gender Inclusion in Neuroscience logo, a blue circle with a teal outline of a brain and text "Gi^2N" where the 2 is as the dot on an i
Feb 21
Community Building
Gender Inclusion in Neuroscience (GiiN)
Image A partially obscured sunrise as seen from a hilltop on a foggy morning.
Feb 20
No Seminar - Biology Graduate Recruitment activities