Glass Micro-fibers
Glass Micro-fibers - Related Videos
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Cited by 6 •
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A protocol for the microfluidic spinning and microstructure characterization of regenerated silk fibroin monofilament is presented.
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The Looking Glass Self
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The concept of the looking-glass self describes how an individual's self-concept is shaped by their perception of how others see them. This psychological theory, first introduced by sociologist Charles Horton Cooley in 1902, posits that self-identity emerges in a social context and is influenced by the judgments—real or imagined—of others.Research suggests that individuals frequently overestimate how positively others perceive them. This is particularly evident in physical self-perception,...
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Measuring the Mechanical Properties of Glass Fiber Reinforcement Polymer Composite Laminates Obtained by Different Fabrication Processes
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Cited by 5 •
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This paper describes a fabrication process for fiber-reinforced polymer matrix composite laminates obtained using the wet hand lay-up/vacuum bag method.
03:55
In Vivo Single-Fiber Recording of Sciatic Nerve C-Fibers in Rats
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2025
This video demonstrates a single-fiber recording of C-fiber nerve conduction in rats. An anesthetized rat is incised to expose the sciatic nerve, which provides sensory and motor supply to the lower limbs. The individual C-fibers are then exposed. Electrical stimulation is provided using stimulus electrodes implanted in the foot, and a response is recorded from a single nerve fiber.
12:53
Electrophysiological Recordings from the Giant Fiber Pathway of D. melanogaster
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Cited by 17 •
2011
The Giant Fiber System is a simple neuronal circuit of adult Drosophila melanogaster containing the largest neurons in the fly. We describe the protocol for monitoring synaptic transmission through this pathway by recording post synaptic potentials in dorsal longitudinal (DLM) and tergotrochanteral (TTM) muscles following direct stimulation of the Giant Fiber interneurons.
FAQs
The refractive-index structure determines whether guided light remains confined through total internal reflection at the glass interface. By tuning this structure, a fiber can support a compact optical path without requiring a bulky interface. In neuroscience, this confinement helps position stimulation or imaging functions near selected neural regions.
Surface coatings and functionalization adjust how the glass interacts with its biological environment. These modifications can make the fiber surface useful for engineered cell interfaces, including studies of cell adhesion and neurite growth. As a result, the same underlying filament can serve either as an optical component or as a biologically interactive substrate.
Their micron-scale dimensions and low mass can reduce spatial disruption when the fibers are placed near neural tissue or incorporated into compact research tools. The small form factor also supports localized measurements rather than broad, spatially distributed measurements. This combination is relevant when researchers need access to specific regions while limiting the physical footprint of the interface.
Preparation centers on selecting a suitable refractive-index structure for light guidance and tailoring the surface for the intended biological environment. Researchers may use an unmodified surface for optical roles or add a coating or functional treatment when cell interaction is important. These choices determine whether the resulting fiber is best suited to optical interfaces, engineered substrates, or both.
Glass micro-fibers can function as compact optical interfaces because their refractive-index structure guides light and their small dimensions support localized placement. In neuroscience, this enables development of tools for neural stimulation and imaging while potentially reducing spatial disruption compared with larger interfaces. The approach is therefore useful for designing minimally invasive research tools and neural probes.
Researchers can use suitably treated fiber surfaces to examine how neural cells adhere and how neurites grow. These substrates provide a controlled material interface for investigating cell behavior in relation to surface properties. In broader neuroscience research, they can contribute to tissue models that connect material design with cellular organization and neural growth.