The elusive transcriptional memory trace.

Oxford open neuroscience Pub Date : 2022-06-16 eCollection Date: 2022-01-01 DOI:10.1093/oons/kvac008
Beatriz Gil-Marti, Celia G Barredo, Sara Pina-Flores, Jose Luis Trejo, Enrique Turiegano, Francisco A Martin
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Abstract

Memory is the brain faculty to store and remember information. It is a sequential process in which four different phases can be distinguished: encoding or learning, consolidation, storage and reactivation. Since the discovery of the first Drosophila gene essential for memory formation in 1976, our knowledge of its mechanisms has progressed greatly. The current view considers the existence of engrams, ensembles of neuronal populations whose activity is temporally coordinated and represents the minimal correlate of experience in brain circuits. In order to form and maintain the engram, protein synthesis and, probably, specific transcriptional program(s) is required. The immediate early gene response during learning process has been extensively studied. However, a detailed description of the transcriptional response for later memory phases was technically challenging. Recent advances in transcriptomics have allowed us to tackle this biological problem. This review summarizes recent findings in this field, and discusses whether or not it is possible to identify a transcriptional trace for memory.

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难以捉摸的转录记忆痕迹
记忆是大脑存储和记忆信息的能力。记忆是一个连续的过程,可分为四个不同的阶段:编码或学习、巩固、存储和重新激活。自 1976 年发现第一个果蝇记忆形成的必要基因以来,我们对记忆形成机制的认识有了长足的进步。目前的观点认为存在着 "刻痕"(engrams),它是神经元群的集合体,其活动在时间上是协调的,代表着大脑回路中经验的最小相关性。为了形成和维持 "刻痕",需要蛋白质合成,可能还需要特定的转录程序。学习过程中的即时早期基因反应已被广泛研究。然而,对后期记忆阶段转录反应的详细描述在技术上具有挑战性。转录组学的最新进展使我们能够解决这一生物学问题。这篇综述总结了这一领域的最新发现,并讨论了是否有可能确定记忆的转录痕迹。
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