Closed-loop modulation of remote hippocampal representations with neurofeedback.

IF 14.7 1区 医学 Q1 NEUROSCIENCES Neuron Pub Date : 2025-03-19 Epub Date: 2025-01-20 DOI:10.1016/j.neuron.2024.12.023
Michael E Coulter, Anna K Gillespie, Joshua Chu, Eric L Denovellis, Trevor Thai K Nguyen, Daniel F Liu, Katherine Wadhwani, Baibhav Sharma, Kevin Wang, Xinyi Deng, Uri T Eden, Caleb Kemere, Loren M Frank
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Abstract

Humans can remember specific remote events without acting on them and influence which memories are retrieved based on internal goals. However, animal models typically present sensory cues to trigger memory retrieval and then assess retrieval based on action. Thus, it is difficult to determine whether measured neural activity patterns relate to the cue(s), the memory, or the behavior. We therefore asked whether retrieval-related neural activity could be generated in animals without cues or a behavioral report. We focused on hippocampal "place cells," which primarily represent the animal's current location (local representations) but can also represent locations away from the animal (remote representations). We developed a neurofeedback system to reward expression of remote representations and found that rats could learn to generate specific spatial representations that often jumped directly to the experimenter-defined target location. Thus, animals can deliberately engage remote representations, enabling direct study of retrieval-related activity in the brain.

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基于神经反馈的远端海马表征闭环调制。
人类可以在不采取行动的情况下记住特定的远程事件,并根据内部目标影响哪些记忆被检索。然而,动物模型通常呈现感官线索来触发记忆检索,然后根据行动评估检索。因此,很难确定所测量的神经活动模式是否与线索、记忆或行为有关。因此,我们想知道,在没有提示或行为报告的情况下,动物是否会产生与检索相关的神经活动。我们关注的是海马的“位置细胞”,它主要代表动物的当前位置(本地表征),但也可以代表远离动物的位置(远程表征)。我们开发了一种神经反馈系统来奖励远程表征的表达,并发现大鼠可以学习产生特定的空间表征,这些表征通常直接跳到实验者定义的目标位置。因此,动物可以有意识地参与远程表征,从而可以直接研究大脑中与检索相关的活动。
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来源期刊
Neuron
Neuron 医学-神经科学
CiteScore
24.50
自引率
3.10%
发文量
382
审稿时长
1 months
期刊介绍: Established as a highly influential journal in neuroscience, Neuron is widely relied upon in the field. The editors adopt interdisciplinary strategies, integrating biophysical, cellular, developmental, and molecular approaches alongside a systems approach to sensory, motor, and higher-order cognitive functions. Serving as a premier intellectual forum, Neuron holds a prominent position in the entire neuroscience community.
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