The neurology of creativity: 2023 Hower lecture

Phillip L. Pearl
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Abstract

The neurology of creativity implies network activity; no singular cerebral area is invoked. A clinician-scientist can develop a creative research project from a single patient, combined with critical scientific alliances, careful observations, and correlations. The developing nervous system poses additional complexity, as changes are expected over time in physiologic circumstances, to which must be added compensatory responses to underlying pathology. The arts represent an especially productive area to study the neurology of creativity, especially with functional imaging, tractography, and intracranial electrophysiology. Music activates widespread bilateral areas, including temporal, orbitofrontal, insular, fusiform, and cerebellar cortex. There are different neuronal clusters for different levels of sound volume, duration, timbre, and pitch. Heschl's gyrus and the arcuate fasciculus correlate with pitch. The orbitofrontal cortex is involved in expectancy generation and appears to be active with no music and then deactivates with music, as if the cortex has an editing function. This appears to correlate with the default mode network being key during improvisation, whereas the central executive network is invoked in effortful, repetitive playing. Furthermore, plasticity is associated with music, from the pathologic development of musicogenic seizures, to protection from musician's dystonia in pianists who begin lessons before age 9 years, to benefits of increased temporal cortex in older adults taking piano lessons after six months. Creativity, reducing negativity bias, and juggling life s priorities are key to countering burnout and building resilience.

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创造力的神经学:2023 年霍尔讲座
创造力的神经学意味着网络活动,而不是单一的大脑区域。临床科学家可以从单个病人出发,结合重要的科学联盟、仔细观察和相关性,开发出一个创造性研究项目。发育中的神经系统具有额外的复杂性,因为随着时间的推移,生理环境会发生变化,此外还必须对潜在的病理学做出代偿反应。艺术是研究创造力神经学的一个特别富有成效的领域,尤其是在功能成像、束线学和颅内电生理学方面。音乐能激活广泛的双侧区域,包括颞叶、眶额叶、岛叶、纺锤形和小脑皮层。不同程度的音量、持续时间、音色和音高会产生不同的神经元群。赫氏回和弓状束与音调相关。眶额叶皮层参与期望值的产生,在没有音乐的情况下,眶额叶皮层似乎处于活跃状态,而在有音乐的情况下,眶额叶皮层则会失活,就好像该皮层具有编辑功能一样。这似乎与默认模式网络在即兴演奏时起关键作用有关,而中央执行网络则在费力的重复演奏时被调用。此外,可塑性与音乐有关,从音乐性癫痫发作的病理发展,到 9 岁前开始学习钢琴的钢琴家对音乐性肌张力障碍的保护,再到 6 个月后学习钢琴的老年人颞叶皮质增加所带来的益处。创造力、减少消极偏差以及兼顾生活中的优先事项是抵御职业倦怠和建立复原力的关键。
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