Functional anatomy of the abdominal wall

2021 ◽  
pp. 1175-1178
Author(s):  
Kezia Echlin

This chapter describes the functional anatomy of the abdominal wall. The layers of the abdominal wall consist of skin, superficial fascia, deep investing fascia, muscles, and inner fascial layers: transversalis fascia, extraperitoneal fascia, and peritoneum. The layers are variable in different areas of the abdomen. Skeletal support for the abdomen is derived from the lumbar vertebrae, the superior parts of the pelvic bones, and the bony parts of the inferior thoracic skeleton: the lower ribs and their costal cartilages and the xiphoid process.

2006 ◽  
Vol 33 (2) ◽  
pp. 169-179 ◽  
Author(s):  
Mark A. Grevious ◽  
Mimis Cohen ◽  
Samir R. Shah ◽  
Pedro Rodriguez

2016 ◽  
Vol 2016 ◽  
pp. 1-3
Author(s):  
Mohammadreza Tarahomi ◽  
Hamidreza Alizadeh Otaghvar ◽  
Nazila hasanzadeh Ghavifekr ◽  
Daryanaz Shojaei ◽  
Farhood Goravanchi ◽  
...  

Hydatid cyst caused byEchinococcus granulosusdemonstrates an endemic infection in several countries such as Middle Eastern countries. Liver is the most frequently involved organ, followed by the lung. The case we present is solitary primary localization of cyst in abdominal wall which is extremely rare. A 57-year-old woman presented with an abdominal wall lesion in umbilical area that had been evolving for about 2 years with recent complaint of pain and discomfort. We detected a midline abdominal mass12⁎13centimeters in diameter which was bulged out in umbilicus. Preoperative clinical diagnosis of incarcerated umbilical hernia was made due to its physical examination while surgical exploration disproved the primary diagnosis and we found cystic mass adherent to superficial fascia without any communication to peritoneal space. The cyst was excised completely without any injury or perforation of containing capsule. The diagnosis of hydatid cyst was confirmed by histopathological examination of specimen. The retrograde evaluation showed no involvement of other organs. The patient was followed for two years and no recurrence of hydatid disease has been observed. Hydatid cyst should be considered as a differential diagnosis of abdominal wall and umbilical lesions especially in endemic regions.


2011 ◽  
Vol 33 (10) ◽  
pp. 835-842 ◽  
Author(s):  
Luca Lancerotto ◽  
Carla Stecco ◽  
Veronica Macchi ◽  
Andrea Porzionato ◽  
Antonio Stecco ◽  
...  

2020 ◽  
Vol 53 (03) ◽  
pp. 394-398
Author(s):  
Mazin Abdulsattar Abdulla ◽  
Saja Mahmood Ali Fahad

Abstract Introduction Umbilicus is an important surface landmark on the anterior abdominal wall in addition to its aesthetic and psychological effect. Objectives The objective of the study is to determine the position of umbilicus in Iraqi adults to provide a guide for the neoumbilicus in abdominoplasty. Subjects and Methods This is an observational study performed on 100 volunteers with no abdominal wall abnormality. Measurements included weight, height, body mass index (BMI), distance from xiphoid to umbilicus, distance from xiphoid process to pubic symphysis, distance from xiphoid process to both anterior superior iliac spine (ASIS), distance from pubic symphysis to umbilicus and from pubic symphysis to xiphisternum, distance of umbilicus to both ASIS, and distance of umbilicus to interspinous line and to inter-anterior hypochondrium line. Results The study included 100 volunteers, with 50% male and 50% female whose age ranges between 18 to 60 years. The results were a follows: distance from xiphoid process to umbilicus and distance from xiphoid process to pubic symphysis were 18.03 ± 3.25 cm and 32.21 ± 4.64 cm, respectively; distances from xiphoid process to right ASIS and left ASIS were 25.95 ± 5.72 cm and 25.84 ± 6.02 cm, respectively; distance from pubic symphysis to umbilicus was 17.66 ± 3.12 cm; distance of umbilicus to interspinous line was 9.25 ± 1.84 cm. The distance from umbilicus to inter anterior hypochondrium line was 9.905 ± 2.19 cm. Conclusion These measurements can determine the neoumbilicus position, reduce practical mistakes, and improve postsurgical outcomes.


2011 ◽  
Vol 33 (10) ◽  
pp. 843-849 ◽  
Author(s):  
Jyoti Chopra ◽  
Anita Rani ◽  
Archana Rani ◽  
Ajay Kumar Srivastava ◽  
Pradeep Kumar Sharma

Author(s):  
Roger A. de la Torre ◽  
Jaya Ghosh

Laparoscopic and robotic surgeries of the abdomen require a trocar to facilitate entry and removal of instrumentation. Some of these trocars are 5mm or less, but some trocars for these surgeries are larger, with 8mm to 15mm trocars commonly used. One of the well-known problems seen in minimally invasive surgery to the abdomen is the resulting defect left in the abdominal wall following removal of the trocars. Occasionally, especially after removal of larger trocars, a defect is left that is large enough to allow omentum or segments of small intestine to become entrapped within the resulting space in the abdominal wall. These trocar site hernias can cause pain, but they also may lead to small bowel obstruction and bowel ischemia or even infarction, perforation and death. The likelihood of a trocar site hernia is increased when the minimally invasive procedure requires removal of an organ or a mass. This often requires dilatation of the trocar site opening.1,2,3 Re-operation to reduce and repair trocar site hernias adds significant cost to the healthcare system. Two separate studies report that incidence of trocar site hernias are in the ranges of 0.65%–2.8%4 and 1.5%–1.8%5,6. Based on a 2016 report published by the American Society for Metabolic and Bariatric Surgery (ASMBS), 196,0007 bariatric procedures were performed in 2015. Assuming an average incidence rate of 1.7%, and based on the cost analysis provided by a 2008 case study8, in bariatric surgery alone, it is estimated that the treatment and hospitalization of such hernias adds an additional $86.2M to healthcare costs. Several methods and devices exist to prevent the occurrence of trocar site hernias. However, closing superficial fascia externally is difficult, especially in obese patients, and often requires extending the skin incision significantly. Most instruments to close the potential hernia site involve introducing a hollow needle with a built-in, grasping device through tissue on one side of the defect and into the abdominal cavity. This puts internal structures at risk for potential injury. One end of suture is introduced with this needle and then using a separate instrument through a different trocar this suture is held while the needle is removed. The needle device is then re-introduced through tissue on the opposite side of the defect, and the suture is handed back to the needle device and pulled out completing a U-stitch to close the potential hernia site. If a surgeon inserts a finger into the abdomen along the trocar site to guide the needle, there is the potential for injury to the surgeon’s finger. Therefore, we set about to design a device to close trocar site defects that would work efficiently, while being safe from injury to the patient or the surgeon, and preferably without the need for a separate instrument through a different trocar to assist.


2019 ◽  
Vol 4 (4) ◽  
pp. 648-655
Author(s):  
William G. Pearson ◽  
Jacline V. Griffeth ◽  
Alexis M. Ennis

Purpose Rehabilitation of pharyngeal swallowing dysfunction requires a thorough understanding of the functional anatomy underlying the performance goals of pharyngeal swallowing. These goals include the safe and efficient transfer of a bolus through the hypopharynx into the esophagus. Penetration or aspiration of a bolus threatens swallowing safety. Bolus residue indicates swallowing inefficiency. Several primary mechanics, or elements of the swallowing mechanism, underlie these performance goals, with some elements contributing to both goals. These primary mechanics include velopharyngeal port closure, hyoid movement, laryngeal elevation, pharyngeal shortening, tongue base retraction, and pharyngeal constriction. Each element of the swallowing mechanism is under neuromuscular control and is therefore, in principle, a potential target for rehabilitation. Secondary mechanics of pharyngeal swallowing, those movements dependent on primary mechanics, include opening the upper esophageal sphincter and epiglottic inversion. Conclusion Understanding the functional anatomy of pharyngeal swallowing underlying swallowing performance goals will facilitate anatomically informed critical thinking in the rehabilitation of pharyngeal swallowing dysfunction.


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