空间认知训练快速诱导盲导航皮层可塑性:训练效果的转移&格兰杰因果连通性分析。

Lora T Likova, Zhangziyi Zhou, Michael Liang, Christopher W Tyler
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引用次数: 0

摘要

利科娃认知-动觉导航训练是如何重组皮层导航网络的?在为期一周的盲训练前后,我们测量了皮层区域额叶-海马-岛-脾后- v1网络的格兰杰-因果连系。在记忆绘制任务(绘制复杂地图和绘制指定地图位置之间的最短路径)中,自上而下的影响主要出现在两个任务中,从自我中心的岛叶到非中心空间的脾后皮层和V1的模态空间画板的一致影响占主导地位,同时额叶皮层对这些区域的影响也同时存在。训练后,以及在最佳按需路径的记忆计划过程中,海马发挥了更强的作用,V1画板将信息向前传递到脾后区域。这些区域之间的反向因果影响通常遵循与一致影响子集相反模式的递归反馈模型。因此,该导航网络与任务需求和导航训练重新组织了其因果影响模式,从而显著提高了导航技能。
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Spatial cognition training rapidly induces cortical plasticity in blind navigation: Transfer of training effect & Granger causal connectivity analysis.

How is the cortical navigation network reorganized by the Likova Cognitive-Kinesthetic Navigation Training? We measured Granger-causal connectivity of the frontal-hippocampal-insular-retrosplenial-V1 network of cortical areas before and after this one-week training in the blind. Primarily top-down influences were seen during two tasks of drawing-from-memory (drawing complex maps and drawing the shortest path between designated map locations), with the dominant role being congruent influences from the egocentric insular to the allocentric spatial retrosplenial cortex and the amodal-spatial sketchpad of V1, with concomitant influences of the frontal cortex on these areas. After training, and during planning-from-memory of the best on-demand path, the hippocampus played a much stronger role, with the V1 sketchpad feeding information forward to the retrosplenial region. The inverse causal influences among these regions generally followed a recursive feedback model of the opposite pattern to a subset of congruent influences. Thus, this navigational network reorganized its pattern of causal influences with task demands and the navigation training, which produced marked enhancement of the navigational skills.

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