The opioid system regulates affective processing, including pain, pleasure, and reward. Restricting the role of this system to hedonic modulation may be an underestimation, however. Opioid receptors are distributed widely in the human brain, including the more “cognitive” regions in the frontal and parietal lobes. Nonhuman animal research points to opioid modulation of cognitive and decision-making processes. We review emerging evidence on whether acute opioid drug modulation in healthy humans can influence cognitive function, such as how we choose between actions of different values and how we control our behavior in the face of distracting information. Specifically, we review studies employing opioid agonists or antagonists together with ...
Variability in opioid analgesia has been attributed to many factors. For example, genetic variabilit...
Two motivational processes affect choice between actions: (1) changes in the reward value of the goa...
Previously, we found that distinct brain areas predict individual selection bias in decisions betwee...
The opioid system regulates affective processing, including pain, pleasure, and reward. Restricting ...
The endogenous μ-opioid receptor (MOR) system in the brain is central to reward behaviors across spe...
The μ-opioid receptor system is central to reward and pain relief across species. In rodents, inject...
Theoretical accounts distinguish between motivational (‘wanting’) and hedonic (‘liking’) dimensions ...
It has been hypothesized that the pleasure of a reward in humans is mediated by an opioidergic syste...
Studies of non-human animals have provided ample evidence that opioids are involved in reward proces...
While opioid addiction has reached pandemic proportions, we still lack a good understanding of how t...
Reward processing is linked to specific neuromodulatory systems with a dopaminergic contribution to ...
Reward processing is linked to specific neuromodulatory systems with a dopaminergic contribution to ...
International audienceThe opioid system consists of three receptors, mu, delta, and kappa, which are...
Increased responding to drug-associated stimuli (cue reactivity) and an inability to tolerate delaye...
Opioid drugs, such as morphine, bind to opioid receptors in the brain and provide an analgesic, rewa...
Variability in opioid analgesia has been attributed to many factors. For example, genetic variabilit...
Two motivational processes affect choice between actions: (1) changes in the reward value of the goa...
Previously, we found that distinct brain areas predict individual selection bias in decisions betwee...
The opioid system regulates affective processing, including pain, pleasure, and reward. Restricting ...
The endogenous μ-opioid receptor (MOR) system in the brain is central to reward behaviors across spe...
The μ-opioid receptor system is central to reward and pain relief across species. In rodents, inject...
Theoretical accounts distinguish between motivational (‘wanting’) and hedonic (‘liking’) dimensions ...
It has been hypothesized that the pleasure of a reward in humans is mediated by an opioidergic syste...
Studies of non-human animals have provided ample evidence that opioids are involved in reward proces...
While opioid addiction has reached pandemic proportions, we still lack a good understanding of how t...
Reward processing is linked to specific neuromodulatory systems with a dopaminergic contribution to ...
Reward processing is linked to specific neuromodulatory systems with a dopaminergic contribution to ...
International audienceThe opioid system consists of three receptors, mu, delta, and kappa, which are...
Increased responding to drug-associated stimuli (cue reactivity) and an inability to tolerate delaye...
Opioid drugs, such as morphine, bind to opioid receptors in the brain and provide an analgesic, rewa...
Variability in opioid analgesia has been attributed to many factors. For example, genetic variabilit...
Two motivational processes affect choice between actions: (1) changes in the reward value of the goa...
Previously, we found that distinct brain areas predict individual selection bias in decisions betwee...