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补充眼区对具有可变奖励的扫视进行选项和动作值编码。

Supplementary eye field encodes option and action value for saccades with variable reward.

机构信息

Department of Neuroscience, Johns Hopkins University School of Medicine, Baltimore, Maryland, USA.

出版信息

J Neurophysiol. 2010 Nov;104(5):2634-53. doi: 10.1152/jn.00430.2010. Epub 2010 Aug 25.

Abstract

We recorded neuronal activity in the supplementary eye field (SEF) while monkeys made saccades to targets that yielded rewards of variable amount and uncertainty of delivery. Some SEF cells (29%) represented the anticipated value of the saccade target. These neurons encoded the value of the reward option but did not reflect the action necessary to obtain the reward. A plurality of cells (45%) represented both saccade direction and value. These neurons reflect action value, i.e., the value that is expected to follow from a specific saccade. Other cells (13%) represented only saccade direction. The SEF neurons matched the monkey's risk-seeking behavior by responding more strongly to the uncertain reward options than would be expected based on their response to the sure options and the cued outcome probability. Thus SEF neurons represented subjective, not expected, value. Across the SEF population, option-value signals developed early, ∼120 ms prior to saccade execution. Action-value and saccade direction signals developed ∼60 ms later. These results suggest that the SEF is involved in transforming option-value signals into action-value signals. However, in contrast to other oculomotor neurons, SEF neurons did not reach a constant level of activity before saccade onset. Instead the activity level of many (52%) SEF neurons still reflected value at the time just before saccade initiation. This suggests that SEF neurons guide the selection of a saccade based on value information but do not participate in the initiation of that saccade.

摘要

我们记录了猴子在进行扫视以获取具有不同数量和不确定回报的目标时的补充眼区 (SEF) 的神经元活动。一些 SEF 细胞(29%)代表了扫视目标的预期价值。这些神经元编码了奖励选项的价值,但不反映获得奖励所需的动作。大多数细胞(45%)代表了扫视方向和价值。这些神经元反映了动作价值,即预期从特定扫视中获得的价值。其他细胞(13%)仅代表扫视方向。SEF 神经元通过对不确定的奖励选项的反应比对确定选项和提示结果概率的反应更强烈,从而与猴子的风险寻求行为相匹配。因此,SEF 神经元代表了主观的、非预期的价值。在整个 SEF 群体中,选项价值信号在扫视执行前约 120 毫秒时较早出现。动作价值和扫视方向信号在 60 毫秒后出现。这些结果表明,SEF 参与了将选项价值信号转化为动作价值信号的过程。然而,与其他眼球运动神经元不同,SEF 神经元在扫视开始前不会达到恒定的活动水平。相反,许多(52%)SEF 神经元的活动水平在扫视启动前的那一刻仍然反映了价值。这表明 SEF 神经元基于价值信息引导扫视的选择,但不参与该扫视的启动。

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