Neural Development
Neural Development - Related Videos
02:53
Developing a Micro-Tissue-Engineered Neural Network Using a Hydrogel-Based Micro-column
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2025
Source: Struzyna, L. A. et. al., Anatomically Inspired Three-dimensional Micro-tissue Engineered Neural Networks for Nervous System Reconstruction, Modulation, and Modeling. J. Vis. Exp. (2017)This video demonstrates the development of micro-tissue-engineered neural networks using a hydrogel micro-column with an extracellular matrix core. Seeded neuronal aggregates adhere, extend projections, and form structured neural networks, contributing to advancements in neurodevelopment and...
07:49
Time-lapse Live Imaging of Clonally Related Neural Progenitor Cells in the Developing Zebrafish Forebrain
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Cited by 11 •
2011
The present video demonstrates a method which takes advantage of the combination of electroporation and confocal microscopy to perform live imaging on individual neural progenitor cells in the developing zebrafish forebrain. In vivo analysis of the development of forebrain neural progenitor cells at a clonal level can be achieved in this way.
10:32
Enumeration of Neural Stem Cells Using Clonal Assays
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Cited by 5 •
2016
Neural stem cells (NSCs) refer to cells which can self-renew and differentiate into the three neural lineages. Here, we describe a protocol to determine NSC frequency in a given cell population using neurosphere formation and differentiation under clonal conditions.
03:07
Assessing the Effects of Toxins on Chick Embryo Neural Network Development Using Multielectrode Arrays
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2025
This video demonstrates the use of multi-electrode arrays (MEA) to study the effects of toxins on early embryonic chick neuronal cultures. By monitoring the synchronous activity of the neurons in the neuronal network, the MEA captures the functional dynamics of the neuronal network in response to toxin exposure. Reduced synchrony and firing rates upon toxin exposure highlight its detrimental impact on neuronal network maturation and function.
03:14
Developing an Engineered Silk-Collagen-Based 3D Model of Polarized Neural Tissue
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2025
This video showcases the creation of a 3D polarized neural tissue model utilizing silk-collagen scaffolds. It details the process of seeding neuronal cells on porous silk scaffolds, incubating for cell attachment, embedding the scaffold with collagen, and underscores the significance of the supportive collagen matrix in forming a 3D polarized neural tissue model.
FAQs
Molecular signals provide positional and developmental guidance as neural cells form. They help direct progenitor differentiation, migration, axon growth, and synapse establishment, linking cellular behavior to the organization of emerging circuits. Because these signals operate across successive stages, altered signaling can affect both where cells settle and how they connect, making signaling mechanisms important for understanding developmental disorders.
Neural stem and progenitor cells must both expand the developing cell population and generate specialized cells. Their differentiation produces neurons and glia, while controlled proliferation supports the supply of those cell types. Studying this balance helps explain how nervous-system structure is established and provides a framework for examining developmental disruptions or attempts to generate replacement cells.
These processes build connectivity in a coordinated sequence rather than as isolated events. Cells migrate toward defined locations, growing axons establish pathways, and synapses create points of communication between developing neurons. Their coordination determines how functional circuits emerge, so examining all three events can reveal why a structural abnormality may later affect network organization.
Early connections are not necessarily retained in their initial form. Activity-dependent refinement helps shape developing circuits after synapses have formed, allowing network organization to mature through use-related changes. This principle connects cellular development with later circuit function and gives researchers a way to consider how developmental conditions may influence the organization of functional brain networks.
Researchers can examine how genetic, environmental, or other developmental disruptions alter cell production, migration, connectivity, or circuit refinement. Comparing normal and disrupted developmental events can link an early biological change to later nervous-system dysfunction. This approach supports investigation of disease mechanisms and helps identify which stages of development are most relevant to a disorder.
Developmental processes provide a framework for modeling how neurological abnormalities arise as cells and circuits form. Disease models can focus on disrupted differentiation, migration, axon growth, synapse establishment, or activity-dependent refinement. By reproducing or analyzing these events, researchers can study disorder-related mechanisms in a developmental context rather than examining mature tissue alone.
The developmental behavior of neural stem and progenitor cells informs efforts to generate or replace nervous-system cells. Understanding how cells differentiate, migrate, and establish connections can guide strategies for repairing damaged tissue. Developmental principles therefore connect basic neuroscience with regenerative medicine, although successful replacement also depends on restoring appropriate organization and circuit relationships.
Research on neural development identifies the coordinated cellular and molecular events needed for nervous-system organization. Applying that knowledge to damaged tissue may help address cell replacement, axon growth, synapse formation, and circuit integration as related challenges. The goal is not simply to produce new cells, but to understand how repaired tissue could acquire appropriate structure and connectivity.