Cerebellar rhythms: mechanisms, functions and translational opportunities

IF 29 1区 医学 Q1 NEUROSCIENCES
Danny Adrian Spampinato, Annibale Antonioni, Egidio D’Angelo, Giacomo Koch
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引用次数: 0

Abstract

Cerebellar rhythms provide frequency-specific support for motor, cognitive and affective functions. These oscillations are not epiphenomenal but rather dynamically regulated, spatially organized control signals that contribute to the coordination of prediction, error correction, learning and internal model updating. By synchronizing neuronal activity across cerebellar and distributed brain networks at multiple timescales, cerebellar rhythms enable precise and adaptable behaviour and coordination across neural systems. Accordingly, they offer biologically grounded targets for network-level diagnostics and therapeutic neuromodulation. At the circuit level, cerebellar rhythms within distinct frequency bands, ranging from theta and beta to gamma and very high-frequency oscillations, arise from specific microcircuit mechanisms within the inferior olive, the granular and molecular layers of the cerebellar cortex, and the deep cerebellar nuclei. These rhythms structure spike timing and help shape synaptic plasticity windows, forming a frequency-organized substrate for learning and control. Here we describe a frequency–function–modulation framework that links cerebellar oscillations to their behavioural roles and to neuromodulatory interventions. By integrating evidence from animal studies, computational models and non-invasive stimulation studies, we position cerebellar oscillations as a bridge between cerebellar circuit dynamics and systems-level coordination, thereby providing a mechanistic rationale for precision neuromodulation across motor and cognitive domains in neurological and psychiatric conditions. Neural oscillations across a range of frequencies contribute to the cerebellum’s roles in perception, prediction and action. Koch and colleagues describe the microcircuit dynamics through which cerebellar rhythms arise, their influence on cerebellar computations and the potential for precision neuromodulation of cerebellar oscillations to treat neurological and psychiatric disorders.
小脑节律:机制、功能和转译机会。
小脑节律为运动、认知和情感功能提供特定频率的支持。这些振荡不是偶发现象,而是动态调节的、空间组织的控制信号,有助于预测、纠错、学习和内部模型更新的协调。通过在多个时间尺度上同步小脑和分布式脑网络中的神经元活动,小脑节律使神经系统之间的行为和协调变得精确和适应性强。因此,它们为网络级诊断和治疗性神经调节提供了生物学基础靶点。在回路水平上,小脑节律在不同的频带内,从θ和β到γ和非常高频的振荡,由下橄榄、小脑皮层的颗粒层和分子层以及小脑深部核内的特定微回路机制产生。这些节律构成了尖峰时间,并帮助形成突触可塑性窗口,形成了学习和控制的频率组织基质。在这里,我们描述了一个频率-功能调节框架,将小脑振荡与其行为角色和神经调节干预联系起来。通过整合来自动物研究、计算模型和非侵入性刺激研究的证据,我们将小脑振荡定位为小脑回路动力学和系统级协调之间的桥梁,从而为神经和精神疾病中跨越运动和认知领域的精确神经调节提供了机制基础。
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来源期刊
自引率
0.60%
发文量
104
期刊介绍: Nature Reviews Neuroscience is a multidisciplinary journal that covers various fields within neuroscience, aiming to offer a comprehensive understanding of the structure and function of the central nervous system. Advances in molecular, developmental, and cognitive neuroscience, facilitated by powerful experimental techniques and theoretical approaches, have made enduring neurobiological questions more accessible. Nature Reviews Neuroscience serves as a reliable and accessible resource, addressing the breadth and depth of modern neuroscience. It acts as an authoritative and engaging reference for scientists interested in all aspects of neuroscience.
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