Microvascular Endothelium
Microvascular Endothelium - Related Videos
14:16
Analysis of Physiologic E-Selectin-Mediated Leukocyte Rolling on Microvascular Endothelium
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Cited by 32 •
2009
This report provides a visual depiction of parallel-plate flow chamber analysis for studying leukocyte endothelial interactions under physiologic shear stress. This method is particularly useful for investigating the role of endothelial (E)-selectin and leukocyte E-selectin ligands that trigger leukocyte rolling on endothelial cell surfaces.
09:23
Isolation of Microvascular Endothelial Tubes from Mouse Resistance Arteries
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Cited by 20 •
2013
We present a preparation for visualizing and manipulating calcium signaling in native, intact microvascular endothelium. Endothelial tubes freshly isolated from mouse resistance arteries supplying skeletal muscle retain in vivo morphology and dynamic signaling within and between neighboring cells. Endothelial tubes can be prepared from microvessels of other tissues and organs.
03:39
Studying Lymphocyte Transmigration Across a Microvascular Endothelial Cell Monolayer
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2025
This video demonstrates an experimental investigation of lymphocyte transmigration across a blood-brain barrier (BBB) endothelium model. A monolayer of human brain microvascular endothelial cells (HBMECs) is generated in vitro, and peripheral blood mononuclear cells (PBMCs) containing lymphocytes are added to the monolayer. The cells are then incubated to allow lymphocyte transmigration, and the migrated cells are quantified using flow cytometry.
06:20
Imaging Leukocyte Adhesion to the Vascular Endothelium at High Intraluminal Pressure
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Cited by 22 •
2011
This is a method to visualise leukocyte adhesion to the endothelium in harvested pressurised vessels. The technique enables studying vascular adhesion under shear flow with differing intraluminal pressures up to 200 mmHg thus mimic-ing the pathophysiological conditions of high blood pressure.
05:53
Intraluminal Drug Delivery to the Mouse Arteriovenous Fistula Endothelium
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Cited by 5 •
2016
After puncturing the aorta through the inferior vena cava (IVC) to create an aorto-caval fistula in the mouse, solution containing a drug is infused into the IVC via the same needle, followed by incubation. This method enables more robust drug delivery to the venous endothelium compared to the external route.
FAQs
Cell junctions and specialized transport pathways determine how readily substances move between blood and tissue. Their combined action creates selective barrier behavior rather than unrestricted exchange, allowing local vessels to balance delivery with retention. Changes in these controls can alter fluid and solute movement, making permeability an important mechanism in studies of edema, inflammation, and tissue homeostasis.
Chemical and mechanical signals modify endothelial behavior at the vessel-tissue interface. These responses influence vascular tone, local blood flow, permeability, and the movement of leukocytes from blood into tissues. Examining signal responses therefore connects physical conditions within small vessels with functional outcomes such as altered perfusion or inflammatory cell recruitment.
Its structure and function vary according to the exchange requirements of each tissue. In the kidney, specialized properties support filtration, whereas skeletal muscle requires effective nutrient exchange. These differences mean that findings from one vascular bed may not apply directly to another, making organ context essential when interpreting endothelial experiments or disease mechanisms.
Studies can assess selective barrier properties, transport behavior, vascular tone, leukocyte movement, and local blood-flow regulation. Together, these outcomes show how endothelial structure supports tissue exchange and responds to biological signals. Measuring several functions is especially useful when investigating how a vascular change may contribute to inflammation, thrombosis, edema, or impaired tissue perfusion.
Because it regulates permeability, leukocyte movement, and interactions at the blood-tissue boundary, altered endothelial function can influence several vascular disorders. Increased or disrupted exchange may contribute to edema, while changes associated with cellular movement or blood-vessel regulation can be relevant to inflammation and thrombosis. The same framework also helps explain consequences for tissue perfusion.
Its selective barrier behavior and organ-dependent specialization make it an important component of drug-delivery research and engineered tissue models. These systems can be used to examine how substances interact with vessel-like interfaces and whether constructed tissues reproduce relevant exchange properties. Such work links basic vascular biology with the design and evaluation of tissue-focused research platforms.