Mu and delta opioid receptors oppositely regulate motor impulsivity in the signaled nose poke task

Impulsivity is a primary feature of many psychiatric disorders, most notably attention deficit hyperactivity disorder and drug addiction. Impulsivity includes a number of processes such as the inability to delay gratification, the inability to withhold a motor response, or acting before all of the r...

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Veröffentlicht in:PloS one 2009-02, Vol.4 (2), p.e4410-e4410
Hauptverfasser: Olmstead, Mary C, Ouagazzal, Abdel-Mouttalib, Kieffer, Brigitte L
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Kieffer, Brigitte L
description Impulsivity is a primary feature of many psychiatric disorders, most notably attention deficit hyperactivity disorder and drug addiction. Impulsivity includes a number of processes such as the inability to delay gratification, the inability to withhold a motor response, or acting before all of the relevant information is available. These processes are mediated by neural systems that include dopamine, serotonin, norepinephrine, glutamate and cannabinoids. We examine, for the first time, the role of opioid systems in impulsivity by testing whether inactivation of the mu- (Oprm1) or delta- (Oprd1) opioid receptor gene alters motor impulsivity in mice. Wild-type and knockout mice were examined on either a pure C57BL6/J (BL6) or a hybrid 50% C57Bl/6J-50% 129Sv/pas (HYB) background. Mice were trained to respond for sucrose in a signaled nose poke task that provides independent measures of associative learning (responses to the reward-paired cue) and motor impulsivity (premature responses). Oprm1 knockout mice displayed a remarkable decrease in motor impulsivity. This was observed on the two genetic backgrounds and did not result from impaired associative learning, as responses to the cue signaling reward did not differ across genotypes. Furthermore, mutant mice were insensitive to the effects of ethanol, which increased disinhibition and decreased conditioned responding in wild-type mice. In sharp contrast, mice lacking the Oprd1 gene were more impulsive than controls. Again, mutant animals showed no deficit in associative learning. Ethanol completely disrupted performance in these animals. Together, our results suggest that mu-opioid receptors enhance, whereas delta-opioid receptors inhibit, motor impulsivity. This reveals an unanticipated contribution of endogenous opioid receptor activity to disinhibition. In a broader context, these data suggest that alterations in mu- or delta-opioid receptor function may contribute to impulse control disorders.
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Impulsivity includes a number of processes such as the inability to delay gratification, the inability to withhold a motor response, or acting before all of the relevant information is available. These processes are mediated by neural systems that include dopamine, serotonin, norepinephrine, glutamate and cannabinoids. We examine, for the first time, the role of opioid systems in impulsivity by testing whether inactivation of the mu- (Oprm1) or delta- (Oprd1) opioid receptor gene alters motor impulsivity in mice. Wild-type and knockout mice were examined on either a pure C57BL6/J (BL6) or a hybrid 50% C57Bl/6J-50% 129Sv/pas (HYB) background. Mice were trained to respond for sucrose in a signaled nose poke task that provides independent measures of associative learning (responses to the reward-paired cue) and motor impulsivity (premature responses). Oprm1 knockout mice displayed a remarkable decrease in motor impulsivity. This was observed on the two genetic backgrounds and did not result from impaired associative learning, as responses to the cue signaling reward did not differ across genotypes. Furthermore, mutant mice were insensitive to the effects of ethanol, which increased disinhibition and decreased conditioned responding in wild-type mice. In sharp contrast, mice lacking the Oprd1 gene were more impulsive than controls. Again, mutant animals showed no deficit in associative learning. Ethanol completely disrupted performance in these animals. Together, our results suggest that mu-opioid receptors enhance, whereas delta-opioid receptors inhibit, motor impulsivity. This reveals an unanticipated contribution of endogenous opioid receptor activity to disinhibition. 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subjects Animals
Associative learning
Attention deficit hyperactivity disorder
Behavior, Animal - physiology
Biochemistry, Molecular Biology
Brain research
Cannabinoids
Conditioning
Conditioning (Psychology)
Cues
Deactivation
Disorders
Disruptive, Impulse Control, and Conduct Disorders - genetics
Disruptive, Impulse Control, and Conduct Disorders - metabolism
Dopamine
Drug abuse
Drug addiction
Ethanol
Genotypes
House mouse
Impulsive behavior
Inactivation
Information processing
Kinases
Learning
Life Sciences
Mental disorders
Mental Health/Neuropsychiatric Disorders
Mental Health/Substance Abuse
Mice
Mice, Inbred C57BL
Mice, Knockout
Neuroscience/Behavioral Neuroscience
Neuroscience/Experimental Psychology
Norepinephrine
Nose
Opioid receptors (type delta)
Opioid receptors (type mu)
Oprd1 gene
Receptors
Receptors, Opioid, delta - genetics
Receptors, Opioid, delta - metabolism
Receptors, Opioid, mu - genetics
Receptors, Opioid, mu - metabolism
Reinforcement
Reward
Rodents
Serotonin
Sucrose
Sugar
title Mu and delta opioid receptors oppositely regulate motor impulsivity in the signaled nose poke task
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