Nerve Exposure Technique
Nerve Exposure Technique - Related Videos
07:34
Minimally-invasive Technique for Injection into Rat Optic Nerve
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Cited by 4 •
2015
Direct injection into the rat optic nerve is useful for regenerative research. We demonstrate a minimally-invasive technique for direct injection into a rat optic nerve that does not involve opening the skull. Using this method, surgical complications are minimized and recovery is more rapid.
02:50
Toluidine Blue Staining of Peripheral Nerve Sections: A Technique to Stain Myelinated Nerve Fibers For Peripheral Nerve Structure Visualization
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2025
This video demonstrates the staining technique of resin-embedded, osmium tetroxide-treated rat peripheral nerve sections using toluidine blue. The stained nerve sections help visualize the fine structures of peripheral nerves.
04:37
A Technique to Assess the Inhibitory Effect of Toxin Exposure on Miniature Excitatory Postsynaptic Currents (mEPSCs)
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2025
The video demonstrates the electrophysiological analysis of embryonic stem cell-derived neurons after exposure to neurotoxins. Treating these neurons with botulinum neurotoxins reduces the frequency of spontaneous miniature excitatory post-synaptic currents, confirming inhibition of synaptic transmission.
09:08
Developing a Salivary Antibody Multiplex Immunoassay to Measure Human Exposure to Environmental Pathogens
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Cited by 11 •
2016
In the current climate of scarce resources, new technologies are emerging that allow researchers to conduct studies cheaper, faster and with more precision. Here we describe the development of a bead-based salivary antibody multiplex immunoassay to measure human exposure to multiple environmental pathogens simultaneously.
01:52
Inducing Hearing Loss in Mice Through Prolonged High-Volume Sound Exposure
0 Views •
2025
Source: Lee, D. et. al., Modified Experimental Conditions for Noise-Induced Hearing Loss in Mice and Assessment of Hearing Function and Outer Hair Cell Damage. J. Vis. Exp. (2023)This video demonstrates the procedure of noise-induced hearing loss in mice. High-volume sound damages hair cells in the inner ear and disrupts auditory pathways, resulting in hearing impairment.
FAQs
Preservation depends on controlled separation of the layers surrounding the nerve rather than forceful or poorly directed dissection. The operator progresses through skin, fascia, muscle, and connective tissue while maintaining awareness of the nerve’s course. Limiting traction and compression helps protect the nerve’s structural integrity and reduces the risk of disturbing its fascicles or nearby vessels.
Excessive traction or compression can compromise the nerve’s structural integrity even when the nerve remains visible. These forces may also affect adjacent vessels and fascicles, which are important anatomical components within or near the exposed pathway. Careful handling therefore supports reliable visualization and creates safer conditions for later microsurgical treatment, recording, or stimulation.
Following the nerve along its course provides a continuous anatomical reference instead of treating the exposed segment as an isolated structure. This approach helps distinguish the nerve from surrounding connective tissue and adjacent vessels while supporting precise work at the intended site. In neuroscience, the resulting view also helps researchers relate visible nerve structure to function.
A planned procedure first establishes access through the relevant tissue layers, then separates skin, fascia, muscle, and connective tissue in a controlled sequence. Once the nerve is identified, dissection follows its course while limiting traction, compression, and disruption of nearby structures. Consistent execution produces a clear operative field for anatomical study or subsequent intervention.
Its uses include direct anatomical study, diagnosis, decompression, nerve repair, and placement of electrodes. The same access can support experimental recording or stimulation when researchers need direct interaction with neural tissue. Because the method exposes the relevant pathway while emphasizing structural preservation, it connects anatomical observation with therapeutic procedures and neuroscience experiments.
Consistency improves precision by making the exposed anatomy more comparable across procedures or investigations. A stable view of the nerve’s course helps clinicians perform microsurgical work and helps researchers interpret recordings or stimulation in relation to identifiable structures. It also supports clearer comparisons between nerve anatomy and function, which is particularly valuable in neuroscience studies.