2006
DOI: 10.1016/j.neuron.2006.06.032
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Representation of Spatial Goals in Rat Orbitofrontal Cortex

Abstract: The orbitofrontal cortex (OFC) is thought to participate in making and evaluating goal-directed decisions. In rodents, spatial navigation is a major mode of goal-directed behavior, and anatomical and lesion studies implicate the OFC in spatial processing, but there is little direct evidence for coding of spatial or motor variables. Here, we recorded from ventrolateral and lateral OFC in an odor-cued two-alternative choice task requiring orientation and approach to spatial goal ports. In this context, over half… Show more

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Cited by 244 publications
(313 citation statements)
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References 67 publications
(114 reference statements)
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“…Specifically, chronic oPFC GABA A a1 silencing impairs the performance of goal-directed response strategies, while M2 GABA A a1 inhibition enhances sensitivity to action-outcome relationships. The effects of oPFC GABA A a1 knockdown are context selective, consistent with evidence that spatial information is represented within the ventrolateral oPFC during appetitive choice tasks (Feierstein et al, 2006), and that the oPFC regulates behavioral sensitivity to rewardassociated contextual cues (Lasseter et al, 2009(Lasseter et al, , 2014.…”
Section: Introductionsupporting
confidence: 71%
See 1 more Smart Citation
“…Specifically, chronic oPFC GABA A a1 silencing impairs the performance of goal-directed response strategies, while M2 GABA A a1 inhibition enhances sensitivity to action-outcome relationships. The effects of oPFC GABA A a1 knockdown are context selective, consistent with evidence that spatial information is represented within the ventrolateral oPFC during appetitive choice tasks (Feierstein et al, 2006), and that the oPFC regulates behavioral sensitivity to rewardassociated contextual cues (Lasseter et al, 2009(Lasseter et al, , 2014.…”
Section: Introductionsupporting
confidence: 71%
“…In addition, glutamatergic projections from the cortex and dopamine input from the ventral tegmental area converge on dendritic spines within the rodent nucleus accumbens (Bouyer et al, 1984); the targeted medium spiny neurons may then coordinate information being shuttled to the basal ganglia to regulate the expression of instrumental decisionmaking strategies or habits, depending on an animal's drug, stress, or training history. In addition, oPFC neurons, particularly within the ventrolateral region affected here, encode information regarding space, context, and motor requirements as they pertain to acquiring a reinforcer (Feierstein et al, 2006). All of these functions could be degraded by chronic oPFC GABA A a1 silencing and associated molecular sequelae.…”
Section: Regulation Of Action Selection By the Opfcmentioning
confidence: 88%
“…Although at least one previous report has implicated the OFC in conditioned reinforcement 8 , our results indicate that its role may be entirely subordinate to this region's well-documented involvement in signalling expected outcomes (see Supplementary Discussion for consideration of alternative interpretation involving attention). The OFC is activated by cues and during responding in a way that seems to reflect features of the specific outcomes that are to follow-particularly their value [10][11][12][13][14][15][16] -and damage to the OFC has been shown to impair changes in cue-evoked responding after devaluation [17][18][19] . Here we show that the OFC is also critical for instrumental responding when that responding is driven by cue-evoked representations of expected outcomes.…”
mentioning
confidence: 99%
“…The OFC, for example, receives olfactory input from the piriform cortex, and neurons of the OFC detect and discriminate among odors (Rolls and Baylis, 1994;Lipton et al, 1999), represent learned associations between odors and location (Lipton et al, 1999), and encode rewards and punishments associated with odors (Schoenbaum et al, 1998). These findings indicate that the OFC acts both as a secondary olfactory cortex and a higher order association cortex (Lipton et al, 1999;Feierstein et al, 2006;Roesch et al, 2006). It was therefore critical to discriminate between egr-2 induction that occurred in response to odor exposure alone and induction that occurred in response to ASST-test exposure (i.e., stimulus-modality-independent).…”
mentioning
confidence: 99%