Anastomotic Points
Anastomotic Points - Related Videos
04:05
Endoscopic Vacuum Therapy for the Treatment of Anastomotic Leakage after Total Gastrectomy with Esophagojejunostomy
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2025
Here, we present a protocol for endoscopic vacuum therapy (EVT) in the management of anastomotic leaks following total gastrectomy with esophagojejunostomy.
05:42
Development of a Murine Model for Femoral Artery Anastomotic Stenosis
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2025
Here we present a murine model for femoral artery anastomosis, offering researchers a valuable animal model to study and simulate vascular anastomotic stenosis. This development is crucial for advancing our understanding of the pathophysiology underlying this condition and facilitating more accurate and effective research into vascular diseases.
09:40
An Ivor Lewis Esophagectomy Designed to Minimize Anastomotic Complications and Optimize Conduit Function
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Cited by 3 •
2020
We describe a novel intrathoracic esophagogastric anastomotic technique designed to create a large diameter anastomosis while simultaneously maintaining conduit blood supply to minimize the incidence of anastomotic leaks and strictures. Construction and orientation of the stomach conduit designed to optimize upper gastrointestinal tract function is also described.
12:00
Evaluation of a Novel Laser-assisted Coronary Anastomotic Connector - the Trinity Clip - in a Porcine Off-pump Bypass Model
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Cited by 4 •
2014
This paper describes a novel nonocclusive coronary anastomotic connector in a porcine off-pump coronary artery bypass (OPCAB) model. This easy-to-use coronary connector has intrinsic potential to facilitate minimally invasive OPCAB surgery.
07:51
The C-seal: A Biofragmentable Drain Protecting the Stapled Colorectal Anastomosis from Leakage
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Cited by 8 •
2010
The C-seal is a biofragmentable drain protecting the stapled colorectal anastomosis. In this video, details of the manufacturing, deployment and use are shown.
FAQs
Their key functional effect is to provide a possible rerouting of blood when flow through one vessel decreases or becomes obstructed. This collateral circulation can help maintain oxygen and nutrient delivery to neural tissue. The arrangement therefore matters because the consequences of reduced flow may depend on which vascular routes remain available.
Its importance lies in the relationship between blood flow and neural tissue vulnerability. If a cerebral vessel carries less blood, available collateral routes may help limit the effect of that reduction by supporting continued oxygen and nutrient delivery. This makes vascular organization relevant to studies of brain injury and recovery, where circulation is considered alongside neural damage.
Variation in the organization of anastomotic points can alter how cerebral circulation responds to reduced flow. Consequently, two vascular arrangements may not offer the same collateral support when a vessel is narrowed or obstructed. Studying these differences helps researchers interpret how circulation may influence brain injury, recovery, stroke risk assessment, and treatment outcomes.
During cerebral angiography, anastomotic points provide anatomical context for interpreting how vessels connect and where alternate routes may exist. Recognizing these relationships helps relate observed vascular patterns to potential collateral flow rather than viewing each vessel in isolation. This is especially relevant when evaluating reduced flow, suspected obstruction, or other abnormalities in cerebral circulation.
Their organization helps clinicians and researchers assess how cerebral circulation might respond to a vascular problem. Mapping these connections can clarify whether alternate routes may support neural tissue when flow is impaired, while also contributing to the evaluation of stroke risk and vascular lesions. The findings place an individual vascular abnormality within the broader circulation.
Anastomotic points are relevant to procedural planning because they identify aspects of cerebral vascular organization that may affect circulation during treatment. Understanding possible collateral routes can support interpretation of vascular anatomy and help relate a planned intervention to the blood supply of neural tissue. This context is important for neurosurgical and endovascular decision-making.