A thalamo‐parietal cortex circuit is critical for place‐action coordination

The anterior and lateral thalamus (ALT) contains head direction cells that signal the directional orientation of an individual within the environment. ALT has direct and indirect connections with the parietal cortex (PC), an area hypothesized to play a role in coordinating viewer‐dependent and viewe...

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Veröffentlicht in:Hippocampus 2023-12, Vol.33 (12), p.1252-1266
Hauptverfasser: Simmons, Christine M., Moseley, Shawn C., Ogg, Jordan D., Zhou, Xinyu, Johnson, Madeline, Wu, Wei, Clark, Benjamin J., Wilber, Aaron A.
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container_end_page 1266
container_issue 12
container_start_page 1252
container_title Hippocampus
container_volume 33
creator Simmons, Christine M.
Moseley, Shawn C.
Ogg, Jordan D.
Zhou, Xinyu
Johnson, Madeline
Wu, Wei
Clark, Benjamin J.
Wilber, Aaron A.
description The anterior and lateral thalamus (ALT) contains head direction cells that signal the directional orientation of an individual within the environment. ALT has direct and indirect connections with the parietal cortex (PC), an area hypothesized to play a role in coordinating viewer‐dependent and viewer‐independent spatial reference frames. This coordination between reference frames would allow an individual to translate movements toward a desired location from memory. Thus, ALT‐PC functional connectivity would be critical for moving toward remembered allocentric locations. This hypothesis was tested in rats with a place‐action task that requires associating an appropriate action (left or right turn) with a spatial location. There are four arms, each offset by 90°, positioned around a central starting point. A trial begins in the central starting point. After exiting a pseudorandomly selected arm, the rat had to displace the correct object covering one of two (left versus right) feeding stations to receive a reward. For a pair of arms facing opposite directions, the reward was located on the left, and for the other pair, the reward was located on the right. Thus, each reward location had a different combination of allocentric location and egocentric action. Removal of an object was scored as correct or incorrect. Trials in which the rat did not displace any objects were scored as “no selection” trials. After an object was removed, the rat returned to the center starting position and the maze was reset for the next trial. To investigate the role of the ALT‐PC network, muscimol inactivation infusions targeted bilateral PC, bilateral ALT, or the ALT‐PC network. Muscimol sessions were counterbalanced and compared to saline sessions within the same animal. All inactivations resulted in decreased accuracy, but only bilateral PC inactivations resulted in increased non selecting, increased errors, and longer latency responses on the remaining trials. Thus, the ALT‐PC circuit is critical for linking an action with a spatial location for successful navigation.
doi_str_mv 10.1002/hipo.23578
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source MEDLINE; Wiley Online Library All Journals
subjects allocentric
Animals
Cortex (parietal)
egocentric
Head direction cells
Latency
Muscimol
Muscimol - pharmacology
Navigation behavior
parietal cortex
Parietal Lobe - physiology
Rats
Reaction Time - physiology
reference frame transformation
Reinforcement
Space Perception - physiology
thalamus
title A thalamo‐parietal cortex circuit is critical for place‐action coordination
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