hypercolumn organization
超柱组织
hypercolumn structure
超柱结构
visual hypercolumn
视觉超柱
cortical hypercolumn
皮层超柱
hypercolumn model
超柱模型
hypercolumns
超柱
hypercolumnar
超柱状的
hypercolumn theory
超柱理论
hypercolumn system
超柱系统
functional hypercolumn
功能超柱
visual cortex hypercolumns process orientation, ocular dominance, and color information simultaneously.
视觉皮层超柱同时处理方向、眼优势列和颜色信息。
neuroscientists have mapped the hypercolumn organization throughout the primary visual area.
神经科学家已经绘制了整个初级视觉区域的超柱组织图。
the hypercolumn hypothesis revolutionized our understanding of cortical columnar structure.
超柱假说彻底改变了我们对皮层柱状结构的理解。
each hypercolumn represents a complete set of features for a specific visual field location.
每个超柱代表特定视觉位置的特征完整集合。
damage to a hypercolumn can cause specific deficits in visual perception and processing.
超柱损伤可能导致视觉感知和处理的特定缺陷。
research indicates that hypercolumns enable parallel processing of multiple visual attributes.
研究表明超柱能够并行处理多个视觉属性。
clinical studies correlate hypercolumn dysfunction with certain neurological and psychiatric disorders.
临床研究将超柱功能障碍与某些神经和精神疾病联系起来。
the hypercolumn model explains how the brain achieves integration of visual features.
超柱模型解释了大脑如何实现视觉特征的整合。
fmri studies reveal hypercolumn activity patterns during complex visual recognition tasks.
功能性磁共振成像研究揭示了复杂视觉识别任务中的超柱活动模式。
neuroplasticity allows hypercolumns to reorganize and adapt following sensory deprivation.
神经可塑性允许超柱在感觉剥夺后进行重组和适应。
hypercolumns are considered fundamental units of cortical computation in mammalian brains.
超柱被认为是哺乳动物大脑皮层计算的基本单位。
the hypercolumn theory suggests modular boundaries are maintained throughout cortical development.
超柱理论认为模块边界在皮层发育过程中得以维持。
computational models simulate hypercolumn interactions to understand feature integration mechanisms.
计算模型模拟超柱相互作用以理解特征整合机制。
high-resolution imaging has revealed the detailed architecture of individual hypercolumns.
高分辨率成像揭示了单个超柱的详细架构。
studies of hypercolumn development show progressive specialization of neural responses over time.
超柱发育研究显示神经反应随时间逐渐特化。
hypercolumn organization
超柱组织
hypercolumn structure
超柱结构
visual hypercolumn
视觉超柱
cortical hypercolumn
皮层超柱
hypercolumn model
超柱模型
hypercolumns
超柱
hypercolumnar
超柱状的
hypercolumn theory
超柱理论
hypercolumn system
超柱系统
functional hypercolumn
功能超柱
visual cortex hypercolumns process orientation, ocular dominance, and color information simultaneously.
视觉皮层超柱同时处理方向、眼优势列和颜色信息。
neuroscientists have mapped the hypercolumn organization throughout the primary visual area.
神经科学家已经绘制了整个初级视觉区域的超柱组织图。
the hypercolumn hypothesis revolutionized our understanding of cortical columnar structure.
超柱假说彻底改变了我们对皮层柱状结构的理解。
each hypercolumn represents a complete set of features for a specific visual field location.
每个超柱代表特定视觉位置的特征完整集合。
damage to a hypercolumn can cause specific deficits in visual perception and processing.
超柱损伤可能导致视觉感知和处理的特定缺陷。
research indicates that hypercolumns enable parallel processing of multiple visual attributes.
研究表明超柱能够并行处理多个视觉属性。
clinical studies correlate hypercolumn dysfunction with certain neurological and psychiatric disorders.
临床研究将超柱功能障碍与某些神经和精神疾病联系起来。
the hypercolumn model explains how the brain achieves integration of visual features.
超柱模型解释了大脑如何实现视觉特征的整合。
fmri studies reveal hypercolumn activity patterns during complex visual recognition tasks.
功能性磁共振成像研究揭示了复杂视觉识别任务中的超柱活动模式。
neuroplasticity allows hypercolumns to reorganize and adapt following sensory deprivation.
神经可塑性允许超柱在感觉剥夺后进行重组和适应。
hypercolumns are considered fundamental units of cortical computation in mammalian brains.
超柱被认为是哺乳动物大脑皮层计算的基本单位。
the hypercolumn theory suggests modular boundaries are maintained throughout cortical development.
超柱理论认为模块边界在皮层发育过程中得以维持。
computational models simulate hypercolumn interactions to understand feature integration mechanisms.
计算模型模拟超柱相互作用以理解特征整合机制。
high-resolution imaging has revealed the detailed architecture of individual hypercolumns.
高分辨率成像揭示了单个超柱的详细架构。
studies of hypercolumn development show progressive specialization of neural responses over time.
超柱发育研究显示神经反应随时间逐渐特化。
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