Dermatomes Anatomy Overview the Surface of the Skin Is Divided Into
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A Simplified Fascial Model of Pelvic Anatomical Surgery: Going Beyond
Anatomical Science International https://doi.org/10.1007/s12565-020-00553-z ORIGINAL ARTICLE A simplifed fascial model of pelvic anatomical surgery: going beyond parametrium‑centered surgical anatomy Stefano Cosma1 · Domenico Ferraioli2 · Marco Mitidieri3 · Marcello Ceccaroni4 · Paolo Zola5 · Leonardo Micheletti1 · Chiara Benedetto1 Received: 13 March 2020 / Accepted: 5 June 2020 © The Author(s) 2020 Abstract The classical surgical anatomy of the female pelvis is limited by its gynecological oncological focus on the parametrium and burdened by its modeling based on personal techniques of diferent surgeons. However, surgical treatment of pelvic diseases, spreading beyond the anatomical area of origin, requires extra-regional procedures and a thorough pelvic anatomical knowl- edge. This study evaluated the feasibility of a comprehensive and simplifed model of pelvic retroperitoneal compartmen- talization, based on anatomical rather than surgical anatomical structures. Such a model aims at providing an easier, holistic approach useful for clinical, surgical and educational purposes. Six fresh-frozen female pelves were macroscopically and systematically dissected. Three superfcial structures, i.e., the obliterated umbilical artery, the ureter and the sacrouterine ligament, were identifed as the landmarks of 3 deeper fascial-ligamentous structures, i.e., the umbilicovesical fascia, the urogenital-hypogastric fascia and the sacropubic ligament. The retroperitoneal areolar tissue was then gently teased away, exposing the compartments delimited by these deep fascial structures. Four compartments were identifed as a result of the intrapelvic development of the umbilicovesical fascia along the obliterated umbilical artery, the urogenital-hypogastric fascia along the mesoureter and the sacropubic ligaments. The retroperitoneal compartments were named: parietal, laterally to the umbilicovesical fascia; vascular, between the two fasciae; neural, medially to the urogenital-hypogastric fascia and visceral between the sacropubic ligaments. -
International Standards for Neurological Classification of Spinal Cord Injury (Revised 2011)
International standards for neurological classification of spinal cord injury (Revised 2011) Steven C. Kirshblum1,2, Stephen P. Burns3, Fin Biering-Sorensen4, William Donovan5, Daniel E. Graves6, Amitabh Jha7, Mark Johansen7, Linda Jones8, Andrei Krassioukov9, M.J. Mulcahey10, Mary Schmidt-Read11, William Waring12 The authors are the members of the International Standards Committee of ASIA. 1UMDNJ/New Jersey Medical School, 2Kessler Institute for Rehabilitation, 3University of Washington School of Medicine, Seattle, Washington, 4Clinic for Spinal Cord Injuries, Rigshospitalet, and Faculty of Health Sciences, University of Copenhagen, Denmark, 5University of Texas, Houston, Texas, 6University of Kentucky, 7Craig Hospital, Englewood, CO, 8Geron Corporation, Menlo Park, CA, USA, 9International Collaboration on Repair Discoveries, Vancouver, British Columbia, Canada, 10Shriners Hospital for Children, 11Magee Rehabilitation Hospital, Philadelphia, PA, 12Medical College of Wisconsin, Milwaukee, Wisconsin Introduction above which they exit (i.e. C1 exits above the C1 vertebra, This article represents the content of the booklet, just below the skull and C6 nerve roots pass between the International Standards for Neurological Classification C5 and C6 vertebrae) whereas C8 exists between the C7 of Spinal Cord Injury, revised 2011, published by the and T1 vertebra; as there is no C8 vertebra. The C1 American Spinal Injury Association (ASIA). For further nerve root does not have a sensory component that is explanation of the clarifications and changes in this tested on the International Standards Examination. revision, see the accompanying article (Kirshblum S., The thoracic spine has 12 distinct nerve roots and the et al. J Spinal Cord Med. 2011:DOI 10.1179/ lumbar spine consists of 5 distinct nerve roots that are 107902611X13186000420242 each named accordingly as they exit below the level of the The spinal cord is the major conduit through which respective vertebrae. -
Anatomical Study of the Superior Cluneal Nerve and Its Estimation of Prevalence As a Cause of Lower Back Pain in a South African Population
Anatomical study of the superior cluneal nerve and its estimation of prevalence as a cause of lower back pain in a South African population by Leigh-Anne Loubser (10150804) Dissertation to be submitted in full fulfilment of the requirements for the degree Master of Science in Anatomy In the Faculty of Health Science University of Pretoria Supervisor: Prof AN Van Schoor1 Co-supervisor: Dr RP Raath2 1 Department of Anatomy, University of Pretoria 2 Netcare Jakaranda Hospital, Pretoria 2017 DECLARATION OF ORIGINALITY UNIVERSITY OF PRETORIA The Department of Anatomy places great emphasis upon integrity and ethical conduct in the preparation of all written work submitted for academic evaluation. While academic staff teach you about referencing techniques and how to avoid plagiarism, you too have a responsibility in this regard. If you are at any stage uncertain as to what is required, you should speak to your lecturer before any written work is submitted. You are guilty of plagiarism if you copy something from another author’s work (e.g. a book, an article, or a website) without acknowledging the source and pass it off as your own. In effect, you are stealing something that belongs to someone else. This is not only the case when you copy work word-for-word (verbatim), but also when you submit someone else’s work in a slightly altered form (paraphrase) or use a line of argument without acknowledging it. You are not allowed to use work previously produced by another student. You are also not allowed to let anybody copy your work with the intention of passing if off as his/her work. -
Anatomy of the Spine
12 Anatomy of the Spine Overview The spine is made of 33 individual bones stacked one on top of the other. Ligaments and muscles connect the bones together and keep them aligned. The spinal column provides the main support for your body, allowing you to stand upright, bend, and twist. Protected deep inside the bones, the spinal cord connects your body to the brain, allowing movement of your arms and legs. Strong muscles and bones, flexible tendons and ligaments, and sensitive nerves contribute to a healthy spine. Keeping your spine healthy is vital if you want to live an active life without back pain. Spinal curves When viewed from the side, an adult spine has a natural S-shaped curve. The neck (cervical) and low back (lumbar) regions have a slight concave curve, and the thoracic and sacral regions have a gentle convex curve (Fig. 1). The curves work like a coiled spring to absorb shock, maintain balance, and allow range of motion throughout the spinal column. The muscles and correct posture maintain the natural spinal curves. Good posture involves training your body to stand, walk, sit, and lie so that the least amount of strain is placed on the spine during movement or weight-bearing activities. Excess body weight, weak muscles, and other forces can pull at the spine’s alignment: • An abnormal curve of the lumbar spine is lordosis, also called sway back. • An abnormal curve of the thoracic spine is Figure 1. (left) The spine has three natural curves that form kyphosis, also called hunchback. an S-shape; strong muscles keep our spine in alignment. -
Herpes Zoster by Lesia Dropulic, MD
Herpes Zoster Lesia Dropulic Jeffrey Cohen Laboratory of Infectious Diseases, NIAID Varicella (Chickenpox) Centers for Disease Control and Prevention Zoster (Shingles) Centers for Disease Control and Prevention Zoster is Due to Reactivation of Varicella from the Nervous System Blood Adapted from Kimberlin and Whitley NEJM 2007 VZV DNA is Present In Neurons in Ganglia Years After Chickenpox Ganglia latently infected with VZV Subject No. Neurons No. (%) neurons Median VZV DNA Number Tested positive for VZV copies/positive cell Wang et al J Virol 2005 History of Zoster • Zoster: Greek for girdle • Shingles: Latin (cingere) girdle Partial encircling of the trunk with rash First Cell Culture of Varicella-Zoster Virus (March 19, 1949) Thomas Weller in Varicella-Zoster Virus, Cambridge Press 2000 Varicella- Zoster Virus Straus et al. Ann Intern Med 1988 Epidemiology of Zoster • About 99% of adults >40 yo infected with varicella-zoster, thus all older adults at risk • About 1 million cases in the US each year • Rates appear to be increasing • 50% of persons of live to age 85 will develop zoster, 5% may get a second case Risk Factors for Zoster • Age- the major risk factor for healthy persons (long duration since exposure to virus) • Immune compromise- T cell immunity: transplant recipients, leukemia, lymphoma; HIV increases the risk up to 50 fold • Age and immune compromise- reduced VZV-specific T cell immunity Varicella-Zoster Virus: Site of Latency • Varicella-zoster virus is latent in dorsal root ganglia (along the spine) or cranial nerve -
Human Anatomy
Human Anatomy د.فراس عبد الرحمن Lec.13 The neck Overview The neck is the area of the body between the base of the cranium superiorly and the suprasternal notch and the clavicles inferiorly. The neck joins the head to the trunk and limbs, serving as a major conduit for structures passing between them. Many important structures are crowded together in the neck, such as muscles, arteries, veins, nerves, lymphatics, thyroid and parathyroid glands, trachea, larynx, esophagus, and vertebrae. Carotid/jugular blood vessels are the major structures commonly injured in penetrating wounds of the neck. The brachial plexuses of nerves originate in the neck and pass inferolaterally to enter the axillae and continue to supply the upper limbs. Lymph from structures in the head and neck drains into cervical lymph nodes. Skin of the Neck The natural lines of cleavage of the skin (Wrinkle lines) are constant and run almost horizontally around the neck. This is important clinically because an incision along a cleavage line will heal as a narrow scar, whereas one that crosses the lines will heal as a wide or heaped-up scar. Fasciae of the Neck The neck is surrounded by a superficial cervical fascia that lies deep to the skin and invests the platysma muscle (a muscle of facial expression). A second deep cervical fascia tightly invests the neck structures and is divided into three layers. Superficial Cervical Fascia The superficial fascia of the neck forms a thin layer that encloses the platysma muscle. Also embedded in it are the cutaneous nerves, the superficial veins, and the superficial lymph nodes. -
The Neuroanatomy of Female Pelvic Pain
Chapter 2 The Neuroanatomy of Female Pelvic Pain Frank H. Willard and Mark D. Schuenke Introduction The female pelvis is innervated through primary afferent fi bers that course in nerves related to both the somatic and autonomic nervous systems. The somatic pelvis includes the bony pelvis, its ligaments, and its surrounding skeletal muscle of the urogenital and anal triangles, whereas the visceral pelvis includes the endopelvic fascial lining of the levator ani and the organ systems that it surrounds such as the rectum, reproductive organs, and urinary bladder. Uncovering the origin of pelvic pain patterns created by the convergence of these two separate primary afferent fi ber systems – somatic and visceral – on common neuronal circuitry in the sacral and thoracolumbar spinal cord can be a very dif fi cult process. Diagnosing these blended somatovisceral pelvic pain patterns in the female is further complicated by the strong descending signals from the cerebrum and brainstem to the dorsal horn neurons that can signi fi cantly modulate the perception of pain. These descending systems are themselves signi fi cantly in fl uenced by both the physiological (such as hormonal) and psychological (such as emotional) states of the individual further distorting the intensity, quality, and localization of pain from the pelvis. The interpretation of pelvic pain patterns requires a sound knowledge of the innervation of somatic and visceral pelvic structures coupled with an understand- ing of the interactions occurring in the dorsal horn of the lower spinal cord as well as in the brainstem and forebrain. This review will examine the somatic and vis- ceral innervation of the major structures and organ systems in and around the female pelvis. -
Is It Really Sciatica August, 2017
Is It Really Sciatica August, 2017 By Dr. Derek Conte One of the most common complaints we see from patients is that of sciatic pain. They will say, “I have sciatica!” And when I ask, “How do you know it is sciatica?” they will say that’s what their friend said, or that they went online and did a medical search, or my favorite: that their “regular” doctor told them. So, what is sciatica, what are its symptoms, and what exactly is the sciatic nerve? I’ll tell you that sciatica is one for the most misdiagnosed conditions we see. The sciatic nerve is the largest nerve in the body and is made up of five nerves which arise from the low back and sacrum. These nerves converge and travel beneath the buttocks and down the outside rear of the thigh to the back of the knee, where they divide. The tibial nerve goes straight down the back of the calf around the inside of the ankle and on to the underside of the foot. The two peroneal nerves cover the rest of the lower leg and top of the foot (see chart). Sciatica is the irritation of the sciatic nerve and can be caused in several ways. First, compression of the nerve must be present or there would be no pain. Beginning centrally and going out from the spinal cord the causes may be 1) Central canal stenosis which squeezes the entire cord and produces bilateral symptoms. 2) A subluxation (malposition of vertebrae) compresses nerves at the spine. 3) A bulging disc or osteophyte (bony spur) causing stenosis of intervertebral foramen, or a dramatic loss of disc height can also leave too little room for the nerves to exit the spine. -
Protection of Supraclavicular Nerve in the Surgical Procedures of Clavicle Fracture Fixation
Protection of Supraclavicular Nerve in the Surgical Procedures of Clavicle Fracture Fixation Abulaiti Abula First Aliated Hospital of Xinjiang Medical University Yanshi Liu First Aliated Hospital of Xinjiang Medical University Kai Liu First Aliated Hospital of Xinjiang Medical University Feiyu Cai First Aliated Hospital of Xinjiang Medical University Alimujiang Abulaiti First Aliated Hospital of Xinjiang Medical University Xiayimaierdan Maimaiti First Aliated Hospital of Xinjiang Medical University Peng Ren First Aliated Hospital of Xinjiang Medical University Aihemaitijiang yusufu ( [email protected] ) First Aliated Hospital of Xinjiang Medical University Research Article Keywords: Clavicle fracture, Open reduction and internal xation, Supraclavicular nerve injury Posted Date: May 27th, 2021 DOI: https://doi.org/10.21203/rs.3.rs-549126/v1 License: This work is licensed under a Creative Commons Attribution 4.0 International License. Read Full License Page 1/13 Abstract Background: The present study was to evaluate the clinical effectiveness of the protection of the supraclavicular nerve in the treatment of clavicle fracture using fracture reduction and percutaneous external locking plate xation or open reduction and internal xation (ORIF). Methods: A total of 27 patients suffered clavicle fracture and underwent fracture reduction and external or internal xation with reserved clavicular epithelial nerve in our department from January 2015 to January 2020 were retrospectively collected, including 19 males and 8 females with a mean age of 42 years (range 21 to 57 years). Among them, 17 patients were treated with the fracture reduction and percutaneous external locking plate xation, while the other 10 patients were treated with ORIF. The sensory function of the affected shoulder area and the superior lateral thoracic area after surgery was collected and analyzed, as well as the satisfaction rate after the xation was removed. -
Complications Associated with Clavicular Fracture
NOR200061.qxd 9/11/09 1:23 PM Page 217 Complications Associated With Clavicular Fracture George Mouzopoulos ▼ Emmanuil Morakis ▼ Michalis Stamatakos ▼ Mathaios Tzurbakis The objective of our literature review was to inform or- subclavian vein, due to its stable connection with the thopaedic nurses about the complications of clavicular frac- clavicle via the cervical fascia, can also be subjected to ture, which are easily misdiagnosed. For this purpose, we injuries (Casbas et al., 2005). Damage to the internal searched MEDLINE (1965–2005) using the key words clavicle, jugular vein, the suprascapular artery, the axillary, and fracture, and complications. Fractures of the clavicle are usu- carotid artery after a clavicular fracture has also been ally thought to be easily managed by symptomatic treatment reported (Katras et al., 2001). About 50% of injuries to the subclavian arteries are in a broad arm sling. However, it is well recognized that not due to fractures of the clavicle because the proximal all clavicular fractures have a good outcome. Displaced or part is dislocated superiorly by the sternocleidomas- comminuted clavicle fractures are associated with complica- toid, causing damage to the vessel (Sodhi, Arora, & tions such as subclavian vessels injury, hemopneumothorax, Khandelwal, 2007). If no injury happens during the ini- brachial plexus paresis, nonunion, malunion, posttraumatic tial displacement of the fractured part, then it is un- arthritis, refracture, and other complications related to os- likely to happen later, because the distal segment is dis- teosynthesis. Herein, we describe what the orthopaedic nurse placed downward and forward due to shoulder weight, should know about the complications of clavicular fractures. -
Curative Efficacy of Low Frequency Electrical Stimulation in Preventing
Li et al. World Journal of Surgical Oncology (2019) 17:141 https://doi.org/10.1186/s12957-019-1689-2 RESEARCH Open Access Curative efficacy of low frequency electrical stimulation in preventing urinary retention after cervical cancer operation Huan Li1,2†, Can-Kun Zhou4†, Jing Song1,2, Wei-Ying Zhang1,2, Su-Mei Wang1,2, Yi-Ling Gu1,2, Kang Wang1,2, Zhe Ma1,2, Yan Hu1,2, Ai-Min Xiao1,2, Jian-Liu Wang3 and Rui-Fang Wu1,2* Abstract Background: To evaluate the clinical significance of low-frequency electrical stimulation in preventing urinary retention after radical hysterectomy. Methods: A total of 91 women with stage IA2–IB2 cervical cancer, who were treated with radical hysterectomy and lymphadenectomy from January 2009 to December 2012, were enrolled into this study and were randomly divided into two groups: trail group (48 cases) and control group (43 cases). Traditional bladder function training and low- frequency electrical stimulation were conducted in the trail group, while patients in the control group were only treated by traditional bladder training. The general condition, rate of urinary retention, and muscle strength grades of pelvic floor muscle in the perioperative period were compared between these two groups. Results: The incidence of postoperative urinary retention in the electrical stimulation group was 10.41%, significantly lower than that in the control group (44.18%), and the difference was statistically significant (P < 0.01). The duration of postoperative fever and use of antibiotics were almost the same between these two groups. Eleven days after surgery, the difference in grades of the pelvic floor muscle between these two groups was not statistically significant. -
A Comprehensive Review of Anatomy and Regional Anesthesia Techniques of Clavicle Surgeries
vv ISSN: 2641-3116 DOI: https://dx.doi.org/10.17352/ojor CLINICAL GROUP Received: 31 March, 2021 Research Article Accepted: 07 April, 2021 Published: 10 April, 2021 *Corresponding author: Dr. Kartik Sonawane, Uncovering secrets of the Junior Consultant, Department of Anesthesiol- ogy, Ganga Medical Centre & Hospitals, Pvt. Ltd. Coimbatore, Tamil Nadu, India, E-mail: beauty bone: A comprehensive Keywords: Clavicle fractures; Floating shoulder sur- gery; Clavicle surgery; Clavicle anesthesia; Procedure review of anatomy and specific anesthesia; Clavicular block regional anesthesia techniques https://www.peertechzpublications.com of clavicle surgeries Kartik Sonawane1*, Hrudini Dixit2, J.Balavenkatasubramanian3 and Palanichamy Gurumoorthi4 1Junior Consultant, Department of Anesthesiology, Ganga Medical Centre & Hospitals, Pvt. Ltd., Coimbatore, Tamil Nadu, India 2Fellow in Regional Anesthesia, Department of Anesthesiology, Ganga Medical Centre & Hospitals, Pvt. Ltd., Coimbatore, Tamil Nadu, India 3Senior Consultant, Department of Anesthesiology, Ganga Medical Centre & Hospitals, Pvt. Ltd., Coimbatore, Tamil Nadu, India 4Consultant, Department of Anesthesiology, Ganga Medical Centre & Hospitals, Pvt. Ltd., Coimbatore, Tamil Nadu, India Abstract The clavicle is the most frequently fractured bone in humans. General anesthesia with or without Regional Anesthesia (RA) is most frequently used for clavicle surgeries due to its complex innervation. Many RA techniques, alone or in combination, have been used for clavicle surgeries. These include interscalene block, cervical plexus (superficial and deep) blocks, SCUT (supraclavicular nerve + selective upper trunk) block, and pectoral nerve blocks (PEC I and PEC II). The clavipectoral fascial plane block is also a safe and simple option and replaces most other RA techniques due to its lack of side effects like phrenic nerve palsy or motor block of the upper limb.