心理科学进展 ›› 2025, Vol. 33 ›› Issue (12): 2168-2181.doi: 10.3724/SP.J.1042.2025.2168 cstr: 32111.14.2025.2168
收稿日期:2025-03-19
出版日期:2025-12-15
发布日期:2025-10-27
通讯作者:
蒋晓鸣, E-mail: xiaoming.jiang@shisu.edu.cn基金资助:
SONG Qingyi1,2, JIANG Xiaoming1,2(
)
Received:2025-03-19
Online:2025-12-15
Published:2025-10-27
摘要:
话轮转换是对话中双方交替发言的过程, 听者需预测言者的话轮结束点以实现高效交流。尽管已有研究探讨影响结束点预测的言语线索, 其具体机制仍不明确。本文在时间预期的框架下, 综述了可用于话轮结束点预测的多种线索, 并提出话轮转换中的时间预期模型。话轮中有形式与时间结构。词汇句法信息作为形式结构, 可通过皮层−丘脑反馈调节神经振荡, 引导注意力指向结束点。韵律线索提供时间结构。大脑通过间隔同步机制提取节律, 并与神经振荡同步以表征时间。句尾韵律特征的显著变化则被以基于事件的方式表征, 通过小脑快速传导至皮层, 使双通路进入“预测模式”。视觉线索如手势也可发挥类似作用。最后, 本文指出了当前研究的局限, 并提出未来方向:1)检验不同线索在双通路中的作用; 2)探讨个体时间预期能力对话轮转换的影响; 3)研究词汇/句法与韵律线索在话轮结束点预测中的相对权重等。
中图分类号:
宋庆一, 蒋晓鸣. (2025). 话轮转换中的时间预期. 心理科学进展 , 33(12), 2168-2181.
SONG Qingyi, JIANG Xiaoming. (2025). Temporal prediction during turn-taking. Advances in Psychological Science, 33(12), 2168-2181.
图2 话轮转换的不同结构。在这一话轮转换中, 会话双方产出的语音信号被大脑处理加工后转换为可理解的语音内容。这些语音信号中的多维特征(如区分不同元音的共振峰频率等)构成了该事件的形式结构。而形式结构的显著变化(如语音信号的出现/消失代表着相关特征的出现/消失, 某个单词/音节的重读代表着响度的显著上升)则标记了该事件的时间结构。
图4 双通路模型(改编自Schwartze & Kotz, 2013)。其中背侧耳蜗核、下丘、丘脑、颞叶通路为线性通路, 用于表征事件的形式结构。背侧耳蜗核、小脑、丘脑、额叶、基底节为非线性通路, 用于表征事件的时间结构。蓝色为基于事件的时间表征通路, 绿色为基于间隔的时间表征通路, 黑色箭头为形式结构的预测带来的反馈。
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