How the brain dances across critical boundaries
· 2026-09-02 · 原文
DOI：10.1371/journal.pbio.3003950
by Audrey J. Sederberg The brain’s functional connectivity dynamics have been explained by a critically tuned model, but such models miss occasional reconfigurations. A new PLOS Biology study shows that modulatory control near a critical point can account for these rare events. The brain’s functional connectivity dynamics have been explained by a critically tuned model, but such models miss occasional reconfigurations. This Primer discusses new PLOS Biology study showing that modulatory control near a critical point can account for these rare events.
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1. 人话版
Sederberg The brain’s functional connectivity dynamics have been explained by a critically tuned model, but such models miss occasional reconfigurations.
A new PLOS Biology study shows that modulatory control near a critical point can account for these rare events.
2. 领域脉络
来源板块：板块二 · 顶级期刊。
3. 机制拆解
This Primer discusses new PLOS Biology study showing that modulatory control near a critical point can account for these rare events.
4. 证据与数字
摘要未给出量化结果——留意原文的实验与数据。
5. 反例与边界
The brain’s functional connectivity dynamics have been explained by a critically tuned model, but such models miss occasional reconfigurations.
6. 跨领域连接与意外收获
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7. 可复用方法
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8. 术语表
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