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猴子纹状体中的神经元活动与对可预测环境事件的预期有关。

Neuronal activity in monkey striatum related to the expectation of predictable environmental events.

作者信息

Apicella P, Scarnati E, Ljungberg T, Schultz W

机构信息

Institut de Physiologie, Université de Fribourg, Switzerland.

出版信息

J Neurophysiol. 1992 Sep;68(3):945-60. doi: 10.1152/jn.1992.68.3.945.

DOI:10.1152/jn.1992.68.3.945
PMID:1432059
Abstract
  1. This study investigated neuronal activity in the striatum preceding predictable environmental events and behavioral reactions. Monkeys performed in a delayed go-nogo task that included separate time periods during which animals expected signals of behavioral significance, prepared for execution or inhibition of arm reaching movements, and expected the delivery of reward. In the task, animals were instructed by a green light cue to perform an arm reaching movement when a trigger stimulus came on approximately 3 s later (go situation). Movement was withheld after the same trigger light when the instruction cue had been red (nogo situation). Liquid reward was delivered on correct performance in both situations. 2. A total of 1,173 neurons were studied in the striatum (caudate nucleus and putamen) of 3 animals, of which 615 (52%) showed some change in activity during task performance. This report describes how the activity of 193 task-related neurons increased in advance of at least 1 component of the task, namely the instruction cue, the trigger stimulus, or the delivery of liquid reward. These neurons were found in dorsal and anterior parts of caudate and putamen and were slightly more frequent in the proximity of the internal capsule. 3. The activity of 16 neurons increased in both go and nogo trials before the onset of the instruction and subsided shortly after this signal. These activations may be related to the expectation of the instruction as the first signal in each trial. 4. The activity of 15 neurons increased between the instruction and the trigger stimulus in both go and nogo trials. These activations may be related to the expectation of the trigger stimulus independent of an arm movement. Further 56 neurons showed sustained activations only when the instruction requested a movement reaction. Activations were absent in trials in which the movement was withheld. Twenty-one of these neurons were tested with 2 different movement targets, 5 of which showed activity related to the direction of movement. These activations may be related to the preparation of movement or expectation of the specific movement triggering signal. The activity of an additional 20 neurons was unmodulated before the trigger stimulus in movement trials but increased in the interval between the no-movement instruction and the trigger stimulus for withholding the movement. These activations may be related to the preparation of movement inhibition as specific nogo reaction.(ABSTRACT TRUNCATED AT 400 WORDS)
摘要
  1. 本研究调查了在可预测的环境事件和行为反应之前纹状体中的神经元活动。猴子执行一项延迟的“去/不去”任务,该任务包括不同的时间段,在此期间动物预期具有行为意义的信号,准备执行或抑制手臂伸展动作,并预期奖励的发放。在任务中,当大约3秒后触发刺激出现时,绿灯提示指示动物执行手臂伸展动作(去的情况)。当指示提示为红色时(不去的情况),在相同的触发灯亮起后停止动作。在两种情况下,正确执行任务都会给予液体奖励。2. 对3只动物的纹状体(尾状核和壳核)中的1173个神经元进行了研究,其中615个(52%)在任务执行期间表现出活动的某种变化。本报告描述了193个与任务相关的神经元的活动如何在任务的至少一个组成部分之前增加,即指示提示、触发刺激或液体奖励的发放。这些神经元在尾状核和壳核的背侧和前部被发现,并且在内囊附近更为常见。3. 16个神经元的活动在指示开始之前的去和不去试验中均增加,并在该信号之后不久减弱。这些激活可能与将指示作为每次试验中的第一个信号的预期有关。4. 15个神经元的活动在去和不去试验中的指示和触发刺激之间增加。这些激活可能与独立于手臂运动的触发刺激的预期有关。另外56个神经元仅在指示要求运动反应时表现出持续激活。在停止运动的试验中没有激活。其中21个神经元用2个不同的运动目标进行了测试,其中5个表现出与运动方向相关的活动。这些激活可能与运动准备或特定运动触发信号的预期有关。另外20个神经元在运动试验中的触发刺激之前活动未被调制,但在停止运动的指示和触发刺激之间的间隔中增加。这些激活可能与作为特定不去反应的运动抑制准备有关。(摘要截短至400字)

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