Celiac Trunk - Crossref

Trans-Esophageal Echocardiography of the Descending Aorta and Celiac Trunk as an Intraoperative Monitoring for Median Arcuate Ligament Syndrome (MALS) Treatment: Technique Proposal and Two Case Reports

The diaphragmatic crura and the median arcuate ligament press the celiac artery, causing abdominal pain and abdominal pain, is a result of Dunbar syndrome. To determine the safety of the surgery during MAL resection, we recommend the use of transesophageal echocardiography to determine peak systolic velocity in the celiac trunk and determine, in real time.

Source link: https://doi.org/10.3390/surgeries4010003

Anatomical variation of the branching of the Celiac Trunk: case report

Introduction: The celiac trunk derives from the descending abdominal aorta and divides into the left gastric, common hepatic, and splenic arteries within a short course of one to three centimeters. Methods: We undertook the dissection of an adult male cadaver from the Department of Anatomy, Faculdade de Ciu00eancias de Minas Gerais. Conclusion: Anatomical variations in the celiac trunk are common, and their knowledge is vital in avoiding abdominal surgical complications.

Source link: https://doi.org/10.34119/bjhrv5n6-071

Absence of the celiac trunk: A case report

Introduction: The celiac trunk is an arterial trunk that has been the subject of several anatomical and radiological studies. The trunk extends for 1. 5 - 2 cm and then divides into three branches: the left gastric artery, the common hepatic artery, and the splenic artery are all present in the trunk's front. The celiac trunk's anatomical variations are numerous, both in terms of branching and size. Case study: A 63-year-old oncology patient was referred to the radiology department for an abdominal scan in order to differentially determine changes in the adrenal glands in order to differentially diagnose changes in the adrenal glands. The left gastric artery, splenic artery, and the common hepatic artery all arose directly and independently from the abdominal artery. In literature, the occurrence of this vascular pattern varies from 0. 1 percent to 4%. During surgical, diagnostic, and endovascular procedures, knowing of vascular variations in the abdomen is extremely important.

Source link: https://doi.org/10.5937/smclk3-40388

Magnetic Resonance Imaging and Morphological Study on The Celiac Trunk of the Egyptian Barn Owl (Tyto Alba)

Abstract In the Egyptian Barn owl's detailed morphology was discovered to support the application of surgical therapeutic approaches in the coelomic cavity. Five apparently healthy Barn owls were sold, the samples were transferred from Giza Zoo and local animal markets in Giza districts to Cairo University's Department of anatomy in veterinary medicine.

Source link: https://doi.org/10.5455/ajvs.128990

What comprises the plate-like structure between the pancreatic head and the celiac trunk and superior mesenteric artery? A proposal for the term “P–A ligament” based on anatomical findings

Abstract: The celiac trunk and superior mesenteric artery are connected posterior to the portal vein system, between the pancreatic head and roots and/or branches of two key arteries of the aorta: the celiac trunk and superior mesenteric artery. The term u201cP-u201d can be extremely helpful and can help with comprehensive analysis of the pancreatic head's anatomy, as well as an anatomical basis for further pancreatic surgery research.

Source link: https://doi.org/10.1007/s12565-020-00597-1

Rare variation: the absence of both the celiac trunk artery and the common hepatic artery

Methods A 58-year-old woman was admitted to our department for surgical treatment of gastric cancer, confirmed by gastroduoscopy and gastric antrum biopsy. We found an absence of both the celiac trunk artery and the common hepatic artery in the contrast-enhanced computed tomography study. Computerized 3D vascular reconstruction confirmed unusual vascular anomaly in the absence of both CA and CHA. The abdominal artery and gastroduodenal artery are both derived from the abdominal aorta. The left gastric artery developed from the AA directly above the SA and GDA junction. The left hepatic artery in the left gastric artery artery. The right hepatic artery emerged from the superior mesenteric artery, according to the superior mesenteric artery. Conclusion The finding of abnormal abdominal large blood vessels and their relationship with tumors prior to surgery is of utmost importance in avoiding intraoperative blood vessel damage, major postoperative complications, and the absence of lymph node dissection.

Source link: https://doi.org/10.1186/s12957-022-02858-x

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