Kauvar Isaac, Richman Ethan B, Liu Tony X, Li Chelsea, Vesuna Sam, Chibukhchyan Adelaida, Yamada Lisa, Fogarty Adam, Solomon Ethan, Choi Eun Young, Mortazavi Leili, Chau Loo Kung Gustavo, Mukunda Pavithra, Raja Cephra, Gil-Hernández Dariana, Patron Kishandra, Zhang Xue, Brawer Jacob, Wrobel Shenandoah, Lusk Zoe, Lyu Dian, Mitra Anish, Hack Laura, Luo Liqun, Grosenick Logan, van Roessel Peter, Williams Leanne M, Heifets Boris D, Henderson Jaimie M, McNab Jennifer A, Rodríguez Carolyn I, Buch Vivek, Nuyujukian Paul, Deisseroth Karl
Human Neural Circuitry program, Stanford University, Stanford, CA, USA.
Department of Bioengineering, Stanford University, Stanford, CA, USA.
Science. 2025 May 29;388(6750):eadt3971. doi: 10.1126/science.adt3971.
Emotional responses to sensory experience are central to the human condition in health and disease. We hypothesized that principles governing the emergence of emotion from sensation might be discoverable through their conservation across the mammalian lineage. We therefore designed a cross-species neural activity screen, applicable to humans and mice, combining precise affective behavioral measurements, clinical medication administration, and brain-wide intracranial electrophysiology. This screen revealed conserved biphasic dynamics in which emotionally salient sensory signals are swiftly broadcast throughout the brain and followed by a characteristic persistent activity pattern. Medication-based interventions that selectively blocked persistent dynamics while preserving fast broadcast selectively inhibited emotional responses in humans and mice. Mammalian emotion appears to emerge as a specifically distributed neural context, driven by persistent dynamics and shaped by a global intrinsic timescale.
对感官体验的情绪反应是人类健康与疾病状况的核心。我们假设,通过跨哺乳动物谱系的保守性,或许可以发现从感觉中产生情绪的规律。因此,我们设计了一种适用于人类和小鼠的跨物种神经活动筛选方法,结合精确的情感行为测量、临床药物给药和全脑颅内电生理学。该筛选方法揭示了保守的双相动力学,其中情绪显著的感官信号迅速在全脑传播,随后是一种特征性的持续活动模式。基于药物的干预措施选择性地阻断持续动力学,同时保留快速传播,选择性地抑制了人类和小鼠的情绪反应。哺乳动物的情绪似乎作为一种特定分布的神经背景出现,由持续动力学驱动,并由一个全局内在时间尺度塑造。