Event-based encoding of biological motion and location in visual working memory

生物运动 编码(内存) 事件(粒子物理) 维数(图论) 运动(物理) 工作记忆 计算机科学 分散注意力 心理学 沟通 认知心理学 人工智能 神经科学 认知 数学 物理 量子力学 纯数学
作者
Quan Gu,Xueyi Wan,Hong Ma,Xiqian Lu,Yang Guo,Mowei Shen,Zaifeng Gao
出处
期刊:Quarterly Journal of Experimental Psychology [SAGE Publishing]
卷期号:73 (8): 1261-1277 被引量:3
标识
DOI:10.1177/1747021820903042
摘要

We make use of discrete yet meaningful events to orient ourselves to the dynamic environment. Among these events, biological motion, referring to the movements of animate entities, is one of the most biologically salient. We usually encounter biological motions of multiple human beings taking place simultaneously at distinct locations. How we encode biological motions into visual working memory (VWM) to form a coherent experience of the external world and guide our social behaviour remains unclear. This study for the first time addressed the VWM encoding mechanism of biological motions and their corresponding locations. We tested an event-based encoding hypothesis for biological motion and location: When one element of an event is required to be memorised, the irrelevant element of an event will also be extracted into VWM. We presented participants with three biological motions at different locations and required them to memorise only the biological motions or their locations while ignoring the other dimension. We examined the event-based encoding by probing a distracting effect: If the event-based encoding took place, the change of irrelevant dimension in the probe would lead to a significant distraction and impair the performance of detecting target dimension. We found significant distracting effects, which lasted for 3 s but vanished at 6 s, regardless of the target dimension (biological motions vs. locations, Experiment 1) and the exposure time of memory array (1 s vs. 3 s, Experiment 2). These results together support an event-based encoding mechanism during VWM encoding of biological motions and their corresponding locations.

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