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Visual acuity and spatial contrast sensitivity in tree squirrels.松鼠的视力和空间对比敏感度
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Effects of total light deprivation on dorsal lateral geniculate nucleus of male neonate rats.完全剥夺光照对雄性新生大鼠外侧膝状体核的影响。
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The functional organization and cortical connections of motor cortex in squirrels.松鼠运动皮层的功能组织和皮层连接。
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Comparison of area 17 cellular composition in laboratory and wild-caught rats including diurnal and nocturnal species.实验室大鼠与野生捕获大鼠(包括昼行性和夜行性物种)视皮层17区细胞组成的比较。
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Gateways of ventral and dorsal streams in mouse visual cortex.鼠视觉皮层腹侧和背侧流的门户。
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Optimal parameters for microstimulation derived forelimb movement thresholds and motor maps in rats and mice.大鼠和小鼠中微刺激引发的前肢运动阈值和运动图谱的最佳参数。
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Organization of somatosensory cortex in the Northern grasshopper mouse (Onychomys leucogaster), a predatory rodent.北方草兔鼠(Onychomys leucogaster)躯体感觉皮层的组织,一种捕食性啮齿动物。
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并非所有啮齿动物都一样:皮层组织的现代综合研究

All rodents are not the same: a modern synthesis of cortical organization.

作者信息

Krubitzer Leah, Campi Katharine L, Cooke Dylan F

机构信息

Center for Neuroscience, University of California, Davis, Davis, CA 95618, USA.

出版信息

Brain Behav Evol. 2011;78(1):51-93. doi: 10.1159/000327320. Epub 2011 Jun 23.

DOI:10.1159/000327320
PMID:21701141
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3182045/
Abstract

Rodents are a major order of mammals that is highly diverse in distribution and lifestyle. Five suborders, 34 families, and 2,277 species within this order occupy a number of different niches and vary along several lifestyle dimensions such as diel pattern (diurnal vs. nocturnal), terrain niche, and diet. For example, the terrain niche of rodents includes arboreal, aerial, terrestrial, semi-aquatic, burrowing, and rock dwelling. Not surprisingly, the behaviors associated with particular lifestyles are also highly variable and thus the neocortex, which generates these behaviors, has undergone corresponding alterations across species. Studies of cortical organization in species that vary along several dimensions such as terrain niche, diel pattern, and rearing conditions demonstrate that the size and number of cortical fields can be highly variable within this order. The internal organization of a cortical field also reflects lifestyle differences between species and exaggerates behaviorally relevant effectors such as vibrissae, teeth, or lips. Finally, at a cellular level, neuronal number and density varies for the same cortical field in different species and is even different for the same species reared in different conditions (laboratory vs. wild-caught). These very large differences across and within rodent species indicate that there is no generic rodent model. Rather, there are rodent models suited for specific questions regarding the development, function, and evolution of the neocortex.

摘要

啮齿动物是哺乳动物中的一个主要目,在分布和生活方式上具有高度多样性。该目下有五个亚目、34个科和2277个物种,占据了许多不同的生态位,并且在几个生活方式维度上存在差异,如昼夜活动模式(昼行性与夜行性)、地形生态位和饮食。例如,啮齿动物的地形生态位包括树栖、空中、陆地、半水生、穴居和岩居。毫不奇怪,与特定生活方式相关的行为也高度可变,因此产生这些行为的新皮层在不同物种间也经历了相应的改变。对在地形生态位、昼夜活动模式和饲养条件等多个维度上存在差异的物种的皮层组织研究表明,在这个目内,皮层区域的大小和数量可能有很大差异。皮层区域的内部组织也反映了物种间的生活方式差异,并突出了与行为相关的效应器,如触须、牙齿或嘴唇。最后,在细胞水平上,不同物种中同一皮层区域的神经元数量和密度不同,甚至在不同条件下饲养的同一物种(实验室饲养与野外捕获)也有所不同。啮齿动物物种之间及内部的这些巨大差异表明不存在通用的啮齿动物模型。相反,存在适合于关于新皮层发育、功能和进化的特定问题的啮齿动物模型。