Neuron Isolation
Neuron Isolation - Related Videos
06:10
Spinal Cord Neuron Isolation: A Density Gradient Procedure to Isolate Neonatal Spinal Cord Neurons for In Vitro Studies
0 Views •
2025
Source: Eldeiry, M. et al. Spinal Cord Neurons Isolation and Culture from Neonatal Mice. J. Vis. Exp. (2017)In this video, we describe a step-by-step protocol for isolating spinal cord neurons from a neonatal mouse for in vitro studies.
10:27
Isolation and Culture of Hippocampal Neurons from Prenatal Mice
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Cited by 183 •
2012
We provide a protocol for the culture of highly purified hippocampal neurons from prenatal mouse brains without the use of a feeder glial cell layer.
07:49
Spinal Cord Neurons Isolation and Culture from Neonatal Mice
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Cited by 8 •
2017
This study presents a technique for the isolation of neurons from WT neonatal mice. It requires the careful dissection of the spinal cord from the neonatal mouse, followed by the separation of neurons from the spinal cord tissue through mechanical and enzymatic cleavage.
10:58
Neuronal Nuclei Isolation from Human Postmortem Brain Tissue
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Cited by 136 •
2008
The cellular heterogeneity of brain tissue poses a significant limitation for the study of epigenetic markings in chromatin because most assays lack single cell resolution. Neurons typically are intermingled with glia and other non-neuronal cells. We provide a protocol to extract and collect neuronal nuclei from human brain.
12:04
Isolation and Purification of Drosophila Peripheral Neurons by Magnetic Bead Sorting
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Cited by 25 •
2009
In this video-article we present a method for the isolation and purification of Drosophila peripheral neurons using a fast magnetic bead assisted cell sorting strategy. RNA obtained from the isolated cells can be readily used for downstream applications including microarray analyses.
FAQs
Enzymatic digestion loosens tissue, while gentle mechanical dissociation releases individual cells. Used together, these steps address opposing requirements: sufficient disruption to free neurons, but limited physical stress to preserve membrane integrity and viability. This balance can also help retain neuronal characteristics, supporting controlled culture and downstream structural, electrical, or molecular analysis.
Gentle mechanical dissociation limits physical stress during cell release. Because the preparation must separate neurons while preserving membrane integrity and viability, the mechanical step is controlled rather than maximized. This approach supports samples in which neurons retain characteristics needed for culture, morphological characterization, molecular-marker analysis, imaging, or electrophysiology.
Viability indicates that cells remain alive, but preserved neuronal characteristics are also necessary for meaningful neuroscience experiments. Maintaining those characteristics allows isolated cells to be studied as neurons rather than merely counted as surviving cells. This distinction supports investigations of development, synaptic function, neurotoxicity, disease mechanisms, and responses to experimental treatments.
These approaches examine different properties of the resulting neuronal preparation. Imaging evaluates cellular structure, electrophysiology examines neuronal electrical function, and molecular assays measure molecular features. Using one or more of these readouts allows researchers to connect neuronal morphology, functional behavior, and molecular responses within a controlled experimental environment.
A typical workflow begins with tissue dissection, followed by enzymatic digestion and gentle mechanical dissociation to release cells. The resulting neurons may then be maintained in culture before characterization or experimentation. Researchers can examine morphology or molecular markers and apply imaging, electrophysiology, or molecular assays to study the preparation.
Morphology and molecular markers provide complementary ways to characterize isolated neurons. Morphological examination assesses the cells' visible neuronal features, while molecular markers provide evidence of neuronal identity or state. These measurements help researchers determine whether the preparation retains relevant neuronal characteristics before interpreting results from imaging, electrophysiology, or molecular experiments.
Neuron Isolation is useful when researchers need to examine neuronal processes in a controlled environment. Applications include studying neuronal development, synaptic function, neurotoxicity, disease mechanisms, and responses to experimental treatments. Because isolated cells can be cultured and subjected to multiple readouts, the technique connects cellular preparation with diverse neuroscience research questions.