心理学报 ›› 2025, Vol. 57 ›› Issue (9): 1553-1571.doi: 10.3724/SP.J.1041.2025.1553 cstr: 32110.14.2025.1553
收稿日期:2024-08-15
发布日期:2025-06-26
出版日期:2025-09-25
通讯作者:
季琭妍, E-mail: luyanji@gzhu.edu.cn基金资助:Received:2024-08-15
Online:2025-06-26
Published:2025-09-25
摘要: 本研究通过反向oddball范式和视觉失匹配负波(vMMN), 考察个体能否自动加工多面孔情绪变异性信息, 以及这一过程是否受情绪类型的影响。研究采用中央注视点辨别任务, 而4张情绪面孔在外周视野同时呈现且与任务无关。情绪变异性通过改变面孔的情绪强度进行操纵。实验1结果发现, 当整体情绪为中性时, 低情绪变异性面孔不会诱发vMMN, 而高情绪变异性面孔诱发了早期和晚期的vMMN。实验2进一步区分了愤怒和高兴两种情绪类型, 结果发现, 当面孔整体情绪为高兴时, 高、低情绪变异性面孔并未诱发显著的vMMN。而当面孔整体情绪为愤怒时, 高、低情绪变异性面孔在晚期分别诱发了视觉失匹配正波(vMMP)和vMMN。实验3控制了全距和分布形式, 发现低情绪变异性面孔未诱发vMMN, 而高情绪变异性面孔在晚期诱发vMMP。此外, 在三个实验的所有条件下, 全脑均能在早期解码出标准与偏差刺激。实验2还额外发现, 低情绪变异性面孔解码时间较高情绪变异性面孔更晚。综上, 大脑可以自动加工多张面孔的情绪变异性信息, 对相对较高的情绪变异性存在自动加工优势, 并受情绪类型的影响。
中图分类号:
陈子龙, 季琭妍. (2025). 多面孔情绪变异性的自动加工:来自视觉失匹配成分的证据. 心理学报, 57(9), 1553-1571.
CHEN Zilong, JI Luyan. (2025). Automatic processing of variability in multiple facial expressions: Evidence from visual mismatch responses. Acta Psychologica Sinica, 57(9), 1553-1571.
图3 A)实验1中ERP波形图。差异波指由偏差刺激诱发的ERP减去标准刺激诱发的ERP, 阴影部分是感兴趣的时间窗(早期:110~140 ms; 晚期:320~420 ms)。B)实验1中差异波的地形图。地形图上所标记电极点的平均波幅用于绘制该脑区的ERP波形图以及统计分析。C)实验1中高、低情绪变异性条件在早期和晚期左右侧分析电极的vMMN (偏差刺激波幅减标准刺激波幅)平均波幅, 每个点代表被试在该条件下的平均波幅, 黑色菱形和误差棒代表每个条件平均值及95%置信区间。D)实验1中ERP的解码结果, 靠近x轴的横线为解码正确率大于机会水平的时间窗(p < 0.05)。
图6 A)实验2中各情绪和情绪变异性条件在320~420 ms左右侧分析电极的vMMN (偏差刺激波幅减标准刺激波幅)平均波幅, 每个点代表被试在该条件下的平均波幅, 黑色菱形和误差棒代表每个条件平均值及95%置信区间。 B)实验2中ERP的解码结果。靠近x轴的横线为解码正确率大于机会水平的时间窗(p < 0.05)。
图8 A)实验3中的ERP波形图。差异波指由偏差刺激诱发的ERP减去标准刺激诱发的ERP, 阴影部分是感兴趣的时间窗(110~140 ms和320~420 ms)。B)实验3中差异波的地形图。地形图上所标记电极点的平均波幅用于绘制该脑区的ERP波形图以及统计分析。C)实验3中高、低情绪变异性条件在320~420 ms左右侧分析电极的vMMN (偏差刺激波幅减标准刺激波幅)平均波幅, 每个点代表被试在该条件下的平均波幅, 黑色菱形和误差棒代表每个条件平均值及95%置信区间。D)实验3中ERP的解码结果。靠近x轴的横线为解码正确率大于机会水平的时间窗(p < 0.05)。
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