Microdissection of Mouse Brain into Functionally and Anatomically Different Regions

神经科学 生物 人脑 显微解剖 神经解剖学 大脑皮层 哺乳动物大脑 脑形态计量学 皮质(解剖学) 解剖 中枢神经系统 基因 医学 磁共振成像 遗传学 放射科
作者
James L. Meyerhoff,Seid Muhie,Nabarun Chakraborty,Lalith Naidu,Bintu Sowe,Rasha Hammamieh,Marti Jett,Aarti Gautam
出处
期刊:Journal of Visualized Experiments [MyJoVE Corporation]
卷期号: (168) 被引量:20
标识
DOI:10.3791/61941
摘要

The brain is the command center for the mammalian nervous system and an organ with enormous structural complexity. Protected within the skull, the brain consists of an outer covering of grey matter over the hemispheres known as the cerebral cortex. Underneath this layer reside many other specialized structures that are essential for multiple phenomenon important for existence. Acquiring samples of specific gross brain regions requires quick and precise dissection steps. It is understood that at the microscopic level, many sub-regions exist and likely cross the arbitrary regional boundaries that we impose for the purpose of this dissection. Mouse models are routinely used to study human brain functions and diseases. Changes in gene expression patterns may be confined to specific brain areas targeting a particular phenotype depending on the diseased state. Thus, it is of great importance to study regulation of transcription with respect to its well-defined structural organization. A complete understanding of the brain requires studying distinct brain regions, defining connections, and identifying key differences in the activities of each of these brain regions. A more comprehensive understanding of each of these distinct regions may pave the way for new and improved treatments in the field of neuroscience. Herein, we discuss a step-by-step methodology for dissecting the mouse brain into sixteen distinct regions. In this procedure, we have focused on male mouse C57Bl/6J (6-8 week old) brain removal and dissection into multiple regions using neuroanatomical landmarks to identify and sample discrete functionally-relevant and behaviorally-relevant brain regions. This work will help lay a strong foundation in the field of neuroscience, leading to more focused approaches in the deeper understanding of brain function.
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