Brain Derived Neurotrophic Factor Supplementation
Brain Derived Neurotrophic Factor Supplementation - Related Videos
07:53
Generating a Blood-Brain Barrier Chip Using iPSC-derived Precursor Cells
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2025
This video showcases creating a blood-brain barrier chip using iPSC-derived precursor cells. It involves seeding neural progenitor cells and brain microvascular endothelial cells in separate channels with a porous membrane. By flowing differentiation media, the endothelial cells form tight junctions resembling blood vessels, and the neural cells mature into various brain cell types, establishing a functional blood-brain barrier on the chip.
14:26
Progenitor-derived Oligodendrocyte Culture System from Human Fetal Brain
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Cited by 38 •
2012
Primary, human fetal brain-derived, multipotential progenitor cells proliferate in vitro while maintaining the capacity to differentiate into neurons and astrocytes. This work shows that neural progenitors can be induced to differentiate through stages of the oligodendrocytic lineage by conditioning with select growth factors.
05:23
Developing Human iPSC-Derived Motor Nerve Organoids Using a Microfluidic Chip
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2025
This video demonstrates the method of creating motor nerve organoids by first culturing human induced pluripotent stem cells in a special medium to form spheroids, then differentiating them into motor neurons using specific inhibitors, and finally cultivating them in a microfluidic chip to extend axons and form motor nerve organoids.
09:38
Dietary Supplementation of Polyunsaturated Fatty Acids in Caenorhabditis elegans
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Cited by 59 •
2013
Caenorhabditis elegans is a useful model to explore the functions of polyunsaturated fatty acids in development and physiology. This protocol describes an efficient method of supplementing the C. elegans diet with polyunsaturated fatty acids.
11:01
Isolation and Culture of Adult Zebrafish Brain-derived Neurospheres
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Cited by 28 •
2016
Here we provide a reproducible method to examine adult neurogenesis using a neurosphere assay derived from the whole brain or from either the telencephalic, tectal or cerebellar regions of the adult zebrafish brain. Additionally, we describe the procedure to manipulate gene expression in zebrafish neurospheres.
FAQs
Added BDNF binds tropomyosin receptor kinase B, or TrkB, on responsive cells. This receptor interaction initiates intracellular signaling that can alter synaptic function, support neurite growth, and improve resistance to cellular stress. Researchers use these responses to connect an external BDNF exposure with specific changes in neuronal development, maintenance, and plasticity.
Experiments can assess several distinct outcomes, including neuronal development, cell survival, neurite growth, synaptic function, and plasticity. Examining these endpoints separately helps determine whether BDNF primarily affects structural growth, persistence of neurons, or communication between them. This distinction is important when interpreting how the neurotrophin contributes to nervous-system function.
Biologically active BDNF must reach the relevant nervous-system target for its effects to be evaluated meaningfully. Delivery therefore becomes a central experimental challenge rather than a minor technical detail. Differences in whether cells, tissues, or whole organisms receive the supplementation can influence which neural responses are accessible and how findings should be interpreted.
Researchers choose a cellular, tissue, or organism-level model and then examine responses associated with BDNF activity. Measurements may focus on neuronal development, survival, neurite growth, synaptic function, plasticity, or resistance to cellular stress. Comparing these outcomes across experimental settings helps reveal which effects are linked to the selected nervous-system context.
BDNF supplementation can help investigate how neurotrophin signaling relates to learning, memory, and synaptic plasticity. By examining changes in neuronal function after BDNF exposure, researchers can test the contribution of BDNF-related mechanisms to these processes. The approach is therefore useful for connecting molecular signaling with broader neuroscience questions about cognitive function.
These studies can clarify BDNF’s role in neural repair after injury and support investigations of neurodegenerative or psychiatric disorders. Researchers can evaluate whether responses involving neuronal survival, growth, synaptic function, or stress resistance are relevant to a particular model. Findings may also expose delivery limitations that must be addressed when studying nervous-system targets.