神经科学
抑制性突触后电位
兴奋性突触后电位
背景(考古学)
突触可塑性
运动前神经元活动
变质塑性
稳态可塑性
心理学
生物
受体
古生物学
生物化学
作者
Lotte J. Herstel,Corette J. Wierenga
标识
DOI:10.1016/j.conb.2020.08.001
摘要
Coordinated excitatory and inhibitory activity is required for proper brain functioning. Recent computational and experimental studies have demonstrated that activity patterns in recurrent cortical networks are dominated by inhibition. Whereas previous studies have suggested that inhibitory plasticity is important for homeostatic control, this new framework puts inhibition in the driver's seat. Complex neuronal networks in the brain comprise many configurations in parallel, controlled by external and internal 'switches'. Context-dependent modulation and plasticity of inhibitory connections play a key role in memory and learning. It is therefore important to realize that synaptic plasticity is often multisynaptic and that a proper balance between excitation and inhibition is not fixed, but depends on context and activity level.
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