Mind, Brain, Computation and Technology Seminar Series

About this Series

The Mind, Brain, Computation and Technology (MBCT) Seminar Series explores ways in which computational and technical approaches are being used to advance the frontiers of neuroscience.

The series features speakers from other institutions, Stanford faculty and senior training program trainees. Seminars occur about every other week and are held at 4:00 pm on Mondays at the John A. and Cynthia Fry Gunn Rotunda, Neurosciences Building, E241.

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17 Mar 4PM to 5PM PDT

Seminar

MBCT Seminar: Cengiz Pehlevan - Learning dynamics in brains and machines

Stanford Neurosciences Building | Gunn Rotunda (E241)

3 Mar 4PM to 5PM PST

Seminar

MBCT Seminar: Lee Miller - Restoring hope and hand movement to humans with paralysis with a biomimetic brain-computer interface: Opportunities and challenges

Stanford Neurosciences Building | Gunn Rotunda (E241)

10 Feb 4PM to 5PM PST

Seminar

MBCT Seminar: Cynthia F. Moss - Neural codes for representing object distance in echolocating bats

Stanford Neurosciences Building | Gunn Rotunda (E241)

3 Feb 4PM to 5PM PST

Seminar

MBCT Seminar: Alipasha Vaziri - Revealing geometry of neuronal population dynamics using cortex-wide volumetric recording of neuroactivity at cellular resolution

Stanford Neurosciences Building | Gunn Rotunda (E241)

2 Dec 4PM to 5PM PST

Seminar

MBCT Seminar: Huan Wang and Effie Li

Stanford Neurosciences Building | Gunn Rotunda (E241)

Huan Wang will be presenting the talk "Different cultural norms and neuroaffective mechanisms promote trust in Eastern and Western cultures"; Efflie Li will be presenting the talk "Emergent task decomposition and subgoal choices in transformers."

18 Nov 4PM to 5PM PST

Seminar

MBCT Seminar: Julia Costacurta and YoungJu Jo

Stanford Neurosciences Building | Gunn Rotunda (E241)

Julia Costacurta will be presenting the talk "Neuromodulated RNNs," and YoungJu Jo will be presenting the talk "Data-driven discovery of neural computations through brain-wide and cell-type-specific dynamical systems."