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Sleep to Think: Multimodal Mechanisms Linking Sleep, Learning, and Performance

Sleep is not merely a passive state but a dynamic process fundamental to learning, memory consolidation, and cognitive performance. During sleep, the brain undergoes remarkable transformations—reorganizing neural circuits, strengthening newly acquired memories, and clearing metabolic waste accumulated during wakefulness. Decades of research have established that adequate sleep enhances learning capacity, improves problem-solving, and optimizes performance across academic, athletic, and professional domains. Conversely, sleep deprivation impairs attention, working memory, and executive function. Yet the precise multimodal mechanisms linking sleep architecture, electrophysiological activity, neurochemical processes, and behavioral outcomes remain incompletely understood. Recent advances in polysomnography, neuroimaging, electrophysiology, computational modeling, and biomarker assessment have enabled more sophisticated investigation of sleep-dependent learning and performance. Understanding these mechanisms across the lifespan—from infancy through aging—is essential for optimizing human cognition and performance.This Research Topic aims to comprehensively examine the multimodal neurobiological mechanisms by which sleep facilitates learning, memory consolidation, and cognitive performance. We seek to address critical questions: How do sleep stage-specific processes (REM sleep, NREM sleep, slow-wave sleep) differentially support learning and memory? What are the roles of sleep spindles, slow oscillations, and other electrophysiological signatures in memory replay and systems consolidation? How do sleep-dependent changes in synaptic strength, protein synthesis, and gene expression contribute to long-term learning? What neurochemical systems (acetylcholine, norepinephrine, dopamine) regulate sleep-dependent memory processing? How do individual differences in sleep architecture, circadian timing, and sleep need predict learning outcomes and performance? Can targeted sleep interventions or stimulation techniques enhance learning efficiency? By integrating neuroscience, psychology, physiology, and behavioral research, this collection will illuminate the fundamental sleep-learning-performance nexus and provide evidence-based insights for optimizing cognitive outcomes across contexts and populations.We welcome original research, reviews, perspectives, and methodological innovations investigating the links between sleep and learning, memory, or performance. Contributions should align with one or more of the following themes:• Sleep Architecture and Memory Consolidation: Effects of REM, NREM, and slow-wave sleep on declarative, procedural, and emotional memory consolidation• Electrophysiological Mechanisms: Roles of sleep spindles, slow oscillations, hippocampal-neocortical dialogue, and sharp-wave ripples in memory processing• Molecular and Synaptic Plasticity: Sleep-dependent changes in synaptic strength, protein synthesis, gene expression, and molecular signaling cascades supporting learning• Neurochemistry of Sleep-Dependent Learning: Contributions of neurotransmitter systems (acetylcholine, norepinephrine, dopamine, serotonin) to sleep-dependent memory processes• Sleep Deprivation and Cognitive Impairment: Effects of acute and chronic sleep loss on attention, working memory, executive function, and learning capacity• Circadian Rhythms and Sleep Timing: Interactions between circadian phase, sleep pressure, and optimal timing for learning and memory consolidation• Individual Differences and Vulnerability Factors: Genetic variation, age, developmental stage, and factors predicting differential sleep-dependent learning outcomes• Sleep Interventions and Enhancement: Effects of targeted sleep interventions, napping, sleep extension, or stimulation techniques on learning efficiency and performance• Lifespan Development: Sleep-dependent learning across infancy, childhood, adolescence, adulthood, and aging• Applied Contexts: Sleep-dependent learning in academic, athletic, professional, and clinical settings Topic editors: Chun Siong Soon, Michael Jackson Oliveira Andrade, Andrew E Beaudin Source: https://www.frontiersin.org/research-topics/83526/sleep-to-think-multimodal-mechanisms-linking-sleep-learning-and-performance

Open for submissionsHosted by Frontiers in Human Neuroscience
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