Cerebellar Granule Cell Culture
Cerebellar Granule Cell Culture - Related Videos
05:49
Isolation and Culture of Mouse Primary Cerebellar Granule Neurons
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2025
This video demonstrates the technique for isolating and culturing primary mouse cerebellar granule neurons. Cells are treated with an antimetabolite to eliminate proliferating glial cells and produce a pure culture of cerebellar granule neurons.
16:04
Isolation and Culture of Post-Natal Mouse Cerebellar Granule Neuron Progenitor Cells and Neurons
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Cited by 93 •
2009
Here we present a method to isolate and culture cerebellar granule neuron progenitor cells and cerebellar granule neurons from postnatal mouse.
10:02
Ex Vivo Culture of Chick Cerebellar Slices and Spatially Targeted Electroporation of Granule Cell Precursors
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Cited by 4 •
2015
The cerebellar external granule layer is the site of the largest transit amplification in the developing brain. Here, we present a protocol to target genetic modification to this layer at the peak of proliferation using ex vivo electroporation and culture of cerebellar slices from embryonic Day 14 chick embryos.
08:10
Selective Depletion of Microglia from Cerebellar Granule Cell Cultures Using L-leucine Methyl Ester
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Cited by 10 •
2015
Microglia can influence neurons and other glia in culture by various non-cell autonomous mechanisms. Here, we present a protocol to selectively deplete microglia from primary neuronal cultures. This method has the potential to elucidate the role of microglial-neuronal interactions, with implications for neurodegenerative conditions where neuroinflammation is a hallmark feature.
09:10
Ex Vivo Imaging of Postnatal Cerebellar Granule Cell Migration Using Confocal Macroscopy
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Cited by 8 •
2015
During postnatal cerebellum development, immature granule cells originating from the germinal zone exhibit distinct modalities of migration to reach their final destination and to establish neuronal networks. This protocol describes the preparation of cerebellar slices and the confocal macroscopic approach used to investigate the factors that regulate neuronal migration.
FAQs
Defined culture conditions regulate several linked outcomes: neuronal survival, differentiation, and synaptic maturation. This control allows investigators to examine how granule neurons develop and function under experimentally accessible conditions. Because the cellular environment can be studied independently from the intact cerebellum, the culture supports focused analysis of neurite growth, signaling, ion-channel activity, and neuronal responses.
The adhesive substrate provides the surface on which dissociated granule neurons are plated and maintained. It is therefore an important part of establishing a stable cellular preparation for observing neuronal development and function. In this setting, researchers can examine neurite growth and differentiation within a defined system rather than relying only on observations from intact cerebellar tissue.
These cultures support investigation of ion-channel activity, neurotransmitter signaling, apoptosis, and synaptic maturation. Studying these processes in the same accessible neuronal population helps connect cellular behavior with broader questions about neuronal development and function. The preparation is especially useful when researchers need to evaluate how granule neurons respond to defined experimental or pharmacological stimuli.
A typical workflow begins with early postnatal cerebellar tissue, followed by isolation and dissociation of the tissue to obtain granule neurons. The cells are then plated on an adhesive substrate and maintained in defined culture conditions. These conditions are selected to support survival, differentiation, and synaptic maturation while making the developing neuronal population available for controlled experiments.
Researchers use the preparation when they need to examine how cerebellar granule neurons respond to neurotoxic or pharmacological stimuli under controlled in vitro conditions. The resulting observations can include changes in survival, apoptosis, neuronal differentiation, ion-channel activity, or neurotransmitter signaling. This makes the system useful for linking an experimental stimulus to specific cellular outcomes.
Although the cells originate in the cerebellum, the culture supports broader cellular neuroscience studies. Researchers can investigate fundamental processes such as neuronal development, neurite growth, synaptic maturation, signaling, and programmed cell death in an experimentally accessible population. Findings can therefore provide mechanistic insight into cerebellar biology while also informing general questions about neuronal function.