Mcp-1 Loaded Plugs
Mcp-1 Loaded Plugs - Related Videos
01:22
Formation of the Platelet Plug
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2024
The platelet phase, the second stage of hemostasis, commences around 15-20 seconds after an injury. It follows and overlaps with the vascular phase, during which blood vessels constrict to minimize blood loss. As the injured blood vessel contracts, endothelial cells undergo contraction, revealing collagen fibers in the basement membrane and underlying connective tissue. Furthermore, the plasma membrane of endothelial cells becomes adhesive, preparing the site for platelet adhesion. Platelets...
09:34
Imaging Analysis of Neuron to Glia Interaction in Microfluidic Culture Platform (MCP)-based Neuronal Axon and Glia Co-culture System
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Cited by 7 •
2012
This study describes the procedures of setting up a novel neuronal axon and (astro)glia co-culture platform. In this co-culture system, manipulation of direct interaction between a single axon (and single glial cell) becomes feasible, allowing mechanistic analysis of the mutual neuron to glial signaling.
08:16
In Vivo Study of Human Endothelial-Pericyte Interaction Using the Matrix Gel Plug Assay in Mouse
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Cited by 11 •
2016
We present a protocol to study human endothelial-pericyte interactions in mouse using a variation of the matrix gel plug angiogenesis assay.
11:36
Assembly, Loading, and Alignment of an Analytical Ultracentrifuge Sample Cell
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Cited by 21 •
2009
The analytical ultracentrifuge (AUC) sample cell holds sample and reference buffer and during experiments and is exposed to high vacuum and rotor speeds up to 60,000 rpm. This video will demonstrate the rigorous attention to detail necessary for assembly, loading and alignment of this very important component of an AUC experiment.
07:03
Bilayer Microfluidic Device for Combinatorial Plug Production
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2023
The fabrication of a polydimethylsiloxane (PDMS)-based bilayer device for the production of combinatorial libraries in water-in-oil emulsions (plugs) is presented here. The necessary hardware and software required to automate plug production are detailed in the protocol, and the production of a quantitative library of fluorescent plugs is also demonstrated.
FAQs
The key signal is a localized MCP-1 concentration gradient. MCP-1 binds chemokine receptors on circulating monocytes, and this receptor-mediated sensing directs the cells toward the plug rather than relying on an uncontrolled distribution throughout the body. The resulting accumulation provides a measurable readout of monocyte trafficking and connects chemokine signaling with local inflammatory recruitment.
Plug composition and MCP-1 loading are experimental variables that shape the recruitment environment. Changing either can alter how much MCP-1 is available locally and, consequently, how many monocytes accumulate in the implant. Comparing plugs prepared under different conditions allows investigators to examine chemokine-driven recruitment systematically while maintaining a localized and experimentally controlled signal.
Localization separates the chemokine signal from broader systemic influences. Because MCP-1 is incorporated into a defined plug, investigators can examine recruitment at a specific site and recover responding cells from that site for analysis. This arrangement makes it possible to evaluate how local chemokine-driven accumulation changes under different experimental conditions.
A typical experiment begins by selecting the plug composition and MCP-1 loading, followed by use of the biomaterial implant in vivo. After recruitment occurs, immune cells are recovered from the plug and analyzed. This workflow links defined chemokine conditions to cell accumulation, enabling direct comparison of monocyte recruitment across experimental settings.
Recovered cells provide a direct sample of the immune response generated at the implant site. Their analysis can indicate how strongly monocytes and other recruited immune cells accumulated in the plug under a particular MCP-1 loading or composition. Comparing these samples helps researchers evaluate changes in leukocyte recruitment and local inflammatory responses.
In immunology and infection research, the model provides a controlled in vivo setting for examining leukocyte recruitment and local inflammation. It focuses attention on how a chemokine signal directs monocyte trafficking to a defined site, while allowing the recruited cells to be recovered for analysis. This supports comparisons among experimental conditions that modify local recruitment.