Extensive training and hippocampus or striatum lesions: Effect on place and response strategies

Abstract The hippocampus has been linked to spatial navigation and the striatum to response learning. The current study focuses on how these brain regions continue to interact when an animal is very familiar with the task and the environment and must continuously switch between navigation strategies...

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Veröffentlicht in:Physiology & behavior 2012-02, Vol.105 (3), p.645-652
Hauptverfasser: Jacobson, Tara K, Gruenbaum, Benjamin F, Markus, Etan J
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container_title Physiology & behavior
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creator Jacobson, Tara K
Gruenbaum, Benjamin F
Markus, Etan J
description Abstract The hippocampus has been linked to spatial navigation and the striatum to response learning. The current study focuses on how these brain regions continue to interact when an animal is very familiar with the task and the environment and must continuously switch between navigation strategies. Rats were trained to solve a plus maze using a place or a response strategy on different trials within a testing session. A room cue (illumination) was used to indicate which strategy should be used on a given trial. After extensive training, animals underwent dorsal hippocampus, dorsal lateral striatum or sham lesions. As expected hippocampal lesions predominantly caused impairment on place but not response trials. Striatal lesions increased errors on both place and response trials. Competition between systems was assessed by determining error type. Pre-lesion and sham animals primarily made errors to arms associated with the wrong (alternative) strategy, this was not found after lesions. The data suggest a qualitative change in the relationship between hippocampal and striatal systems as a task is well learned. During acquisition the two systems work in parallel, competing with each other. After task acquisition, the two systems become more integrated and interdependent. The fact that with extensive training (as something becomes a “habit”), behaviors become dependent upon the dorsal lateral striatum has been previously shown. The current findings indicate that dorsal lateral striatum involvement occurs even when the behavior is spatial and continues to require hippocampal processing.
doi_str_mv 10.1016/j.physbeh.2011.09.027
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The current study focuses on how these brain regions continue to interact when an animal is very familiar with the task and the environment and must continuously switch between navigation strategies. Rats were trained to solve a plus maze using a place or a response strategy on different trials within a testing session. A room cue (illumination) was used to indicate which strategy should be used on a given trial. After extensive training, animals underwent dorsal hippocampus, dorsal lateral striatum or sham lesions. As expected hippocampal lesions predominantly caused impairment on place but not response trials. Striatal lesions increased errors on both place and response trials. Competition between systems was assessed by determining error type. Pre-lesion and sham animals primarily made errors to arms associated with the wrong (alternative) strategy, this was not found after lesions. 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subjects Analysis of Variance
Animal subjects
Animals
Arms
Behavior
Behavioral flexibility
Behavioral psychophysiology
Biological and medical sciences
Brain
Competition
Corpus Striatum - injuries
Corpus Striatum - physiology
Data processing
Female
Fundamental and applied biological sciences. Psychology
Hippocampus
Hippocampus - injuries
Hippocampus - physiology
Illumination
Learning
Maze Learning - physiology
Memory systems
Memory, Short-Term - physiology
Navigation behavior
Neostriatum
Physiology
Place learning
Psychiatry
Psychology. Psychoanalysis. Psychiatry
Psychology. Psychophysiology
Rats
Rats, Inbred F344
Response learning
Spatial Behavior - physiology
Strategy
Work
title Extensive training and hippocampus or striatum lesions: Effect on place and response strategies
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