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Task-anchored grid cell firing is selectively associated with successful path integration-dependent behaviour
by
Clark, Harry
, Nolan, Matthew F
in
Action Potentials
/ Animals
/ Behavior
/ Codes
/ Cortex (entorhinal)
/ Cues
/ Entorhinal Cortex
/ False alarms
/ grid cell
/ Integration
/ Mental task performance
/ Mice
/ Models, Neurological
/ Neuroscience
/ Space Perception
/ spatial cognition
/ spatial memory
/ Visual stimuli
2024
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Task-anchored grid cell firing is selectively associated with successful path integration-dependent behaviour
by
Clark, Harry
, Nolan, Matthew F
in
Action Potentials
/ Animals
/ Behavior
/ Codes
/ Cortex (entorhinal)
/ Cues
/ Entorhinal Cortex
/ False alarms
/ grid cell
/ Integration
/ Mental task performance
/ Mice
/ Models, Neurological
/ Neuroscience
/ Space Perception
/ spatial cognition
/ spatial memory
/ Visual stimuli
2024
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While trying to remove the title from your shelf something went wrong :( Kindly try again later!
Do you wish to request the book?
Task-anchored grid cell firing is selectively associated with successful path integration-dependent behaviour
by
Clark, Harry
, Nolan, Matthew F
in
Action Potentials
/ Animals
/ Behavior
/ Codes
/ Cortex (entorhinal)
/ Cues
/ Entorhinal Cortex
/ False alarms
/ grid cell
/ Integration
/ Mental task performance
/ Mice
/ Models, Neurological
/ Neuroscience
/ Space Perception
/ spatial cognition
/ spatial memory
/ Visual stimuli
2024
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Task-anchored grid cell firing is selectively associated with successful path integration-dependent behaviour
Journal Article
Task-anchored grid cell firing is selectively associated with successful path integration-dependent behaviour
2024
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Overview
Grid firing fields have been proposed as a neural substrate for spatial localisation in general or for path integration in particular. To distinguish these possibilities, we investigate firing of grid and non-grid cells in the mouse medial entorhinal cortex during a location memory task. We find that grid firing can either be anchored to the task environment, or can encode distance travelled independently of the task reference frame. Anchoring varied between and within sessions, while spatial firing of non-grid cells was either coherent with the grid population, or was stably anchored to the task environment. We took advantage of the variability in task-anchoring to evaluate whether and when encoding of location by grid cells might contribute to behaviour. We find that when reward location is indicated by a visual cue, performance is similar regardless of whether grid cells are task-anchored or not, arguing against a role for grid representations when location cues are available. By contrast, in the absence of the visual cue, performance was enhanced when grid cells were anchored to the task environment. Our results suggest that anchoring of grid cells to task reference frames selectively enhances performance when path integration is required.
Publisher
eLife Sciences Publications Ltd,eLife Sciences Publications, Ltd
Subject
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