Primary Culture
Primary Culture - Related Videos
08:43
Primary Neuronal Cultures
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2023
The complexity of the brain often requires neuroscientists to use a simpler system for experimental manipulations and observations. One powerful approach is to generate a primary culture by dissecting nervous system tissue, dissociating it into single cells, and growing those cells in vitro. Primary cultures make neurons and glia easily accessible to the experimental tools required for techniques like genetic manipulation and time-lapse imaging. Furthermore, these cultures represent a highly...
08:14
Using Primary Neurosphere Cultures to Study Primary Cilia
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Cited by 3 •
2017
The primary cilium is fundamentally important in neural progenitor cell proliferation, neuronal differentiation, and adult neuronal function. Here, we describe a method to study ciliogenesis and the trafficking of signaling proteins to cilia in neural stem/progenitor cells and differentiated neurons using primary neurosphere cultures.
10:50
Primary Culture of Human Vestibular Schwannomas
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Cited by 13 •
2014
Vestibular Schwannomas (VSs) are non-malignant tumors of Schwann cell (SC) origin, associated with mutations in the NF2 tumor suppressor gene. We report a reproducible, efficient protocol for primary human VS cell culture that allows for molecular and cellular experimental manipulation and analysis and recapitulates the heterogeneous nature of human disease.
11:58
Primary Culture of Mouse Dopaminergic Neurons
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Cited by 66 •
2014
Dopaminergic neurons play a vital regulatory role in the brain. Their loss is associated with Parkinson's disease. In this video, we show how to generate primary cultures of central dopaminergic neurons from embryonic mouse mesencephalon. Such cultures are useful to study the extreme vulnerability of these neurons to various stresses.
17:46
Low-Density Primary Hippocampal Neuron Culture
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Cited by 15 •
2017
This article describes the protocol for culturing low-density primary hippocampal neurons growing on glass coverslips inverted over a glial monolayer. The neuron and glial layers are separated by paraffin wax beads. The neurons grown by this method are suitable for high-resolution optical imaging and functional assays.
FAQs
Cells taken directly from brain or spinal tissue retain tissue-specific features that may be altered or lost during immortalization. This closer connection to native biology can make neuronal or glial responses more physiologically relevant when investigators examine development, signaling, toxicity, disease mechanisms, or responses to experimental interventions.
A finite lifespan limits how long the preparation can be maintained and means that experiments must be planned within a defined period. This limitation can also be informative, because the resulting system remains distinct from indefinitely proliferating immortalized lines. Researchers therefore need to interpret findings in relation to culture age and experimental timing.
The substrate and nutrient medium provide the controlled environment needed for cells to attach and survive after tissue dissociation. Their combined support also affects whether neurons and glial cells remain viable and develop organized networks. Consequently, these culture conditions are central variables when assessing cellular behavior or comparing responses across experimental preparations.
Preparation-to-preparation variation arises because the cells originate directly from living tissue rather than from a uniform immortalized line. Differences in the starting tissue and the dissociation and maintenance process can influence survival, cellular composition, and network formation. Researchers must therefore consider biological and preparation variability when interpreting results or comparing experiments.
A typical workflow begins with brain or spinal tissue, followed by dissociation to separate the cells. Neurons or glial cells are then placed on a controlled substrate in nutrient medium and maintained under conditions that support attachment and survival. Over time, the cells can form networks, creating a preparation suitable for subsequent neuroscience experiments.
Researchers may choose this approach when physiological relevance is more important than indefinite propagation or maximal uniformity. Directly obtained neural cells can better retain tissue-specific characteristics, making them useful for studying development, synaptic signaling, neurotoxicity, and disease mechanisms. Immortalized lines may remain preferable when long-term expansion or highly consistent cell behavior is required.
Neural cultures can reveal how neurons or glial cells develop, survive, communicate through synaptic signaling, and organize into networks. They also support evaluation of toxic effects, disease-related cellular mechanisms, drugs, and genetic interventions. These outcomes connect cellular observations with questions about nervous-system function while retaining more native characteristics than many simplified models.
Investigators can expose cultured neural cells to a drug or introduce a genetic intervention, then examine resulting changes in cellular behavior or network-related properties. Because the preparation retains tissue-specific features, it offers a physiologically relevant cellular setting for comparing experimental effects. Its finite lifespan and preparation variability should remain part of the interpretation.