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…going one step further H20/1 (1000285) H20/2 (1000286) H20/3 (1000287) H20/4 (1000288) H20/1, H20/2, H20/3, H20/4 (1000285_1000286_1000287_1000288) English H20/1, H20/2, H20/3, H20/4 H20/2, H20/3, H20/4 H20/4 1 Promontory 38 Anterior longitudinal 78 External iliac artery 2 Superior articular surface ligament 79 External iliac vein 3 Lumbar vertebra V 39 Obturator membrane 80 nternal iliac artery 4 Costal process 40 Sacrospinous ligament 81 Internal iliac vein 5 Intervertebral disc 41 Sacrotuberal ligament 82 Right common iliac artery 6 Crest of ilium 42 Inguinal ligament 83 Inferior vena cava 7 Wing of ilium 43 Anterior sacroiliac 84 Abdominal aorta 8 Anterior superior iliac ligaments 85 Left common iliac artery spine 44 Iliolumbar ligament 86 Sciatic nerve 9 Anterior inferior iliac spine 45 Interosseous sacro-iliac 87 Femoral artery 10 Acetabulum ligaments 88 Sacral plexus 11 Obturator foramen 46 Posterior sacro-iliac 89 Dorsal nerve of clitoris 12 Frame of ischial bone ligament 90 Pudendal nerve 13 Superior pubic ramus 47 Supraspinous ligament 91 Piriformis 14 Inferior pubic ramus 92 Inferior rectal nerves 15 Pubic tubercle 93 Perineal nerves 16 Pubic crest H20/3, H20/4 94 Posterior labial nerves 17 Pubic symphysis 48 Rectum 95 Femoral vein 18 Body of pubis 49 Ovary 96 Left common iliac vein 19 Sciatic tuber 50 Uterine tube 97 Superior gluteal artery 20 Ischial spine 51 Uterus 98 Inferior gluteal artery 21 Iliopubic eminence 52 Ligament of ovary 99 Internal pudendal artery 22 Coccygeal bone 53 Urinary bladder 100 ® Middle rectal artery 23 Anterior sacral foramina 54 Perineal membrane 101 Inferior vesical artery 24 Sacral bone 55 Obturator internus 102 Uterine artery [Fallopian 25 Sacroiliac joint 56 Deep transverse perineal artery] 26 Spinous process muscle 103 Umbilical artery 27 Inferior articular process 57 Bulbospongiosus muscle 104 Obturator artery 28 Posterior superior iliac 58 Sphincter ani externus spine muscle 29 Posterior inferior iliac 59 Sphincter ani internus spine muscle 30 Sacral horn 60 Anococcygeal ligament 31 Sacral hiatus 61 Puborectalis muscle 32 Posterior sacral foramina 62 Pubococcygeus 33 Median sacral crest 63 Iliococcygeus muscle 34 Cauda equina 64 Levator ani 35 Greater sciatic notch 65 Coccygeal muscle 36 Lesser sciatic notch 66 Clitoris 37 Ischial bone 67 Urethra 68 Vagina 69 Uterine cavity 70 Opening of uterus 71 Anus [anal orifice] 72 Recto-uterine pouch 73 Transverse rectal fold 74 Superficial transverse perineal muscle 75 Greater vestibular gland (BARTHOLINI) 76 Bulb of vestibule 77 Ischiacavernosus 4 8 H20/1 (1000285) 1 2 3 4 6 7 25 8 24 5 23 9 22 21 20 10 11 12 13 19 18 17 16 15 14 9 H20/1 (1000285) 33 26 3 2 4 27 7 6 28 32 29 24 19 20 31 22 30 10 H20/1 (1000285) 18 13 9 8 7 3 26 5 34 17 24 11 14 12 22 19 37 36 20 35 11.

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H20/1, H20/2, H20/3, H20/4 (1000285 1000286 1000287 1000288) Latin
…going one step further H20/1 (1000285) H20/2 (1000286) H20/3 (1000287) H20/4 (1000288) H20/1, H20/2, H20/3, H20/4 (1000285_1000286_1000287_1000288) Latin H20/1, H20/2, H20/3, H20/4 H20/2, H20/3, H20/4 H20/4 1 Promontorium 38 Lig. longitudinale anterius 78 A. iliaca externa 2 Processus articularis 39 Membrana obturatoria 79 V. iliaca externa superior 40 Lig. sacrospinale 80 A. iliaca interna 3 Vertebra lumbalis V 41 Lig. sacrotuberale 81 V. iliaca interna 4 Processus costalis 42 Lig. inguinale 82 A. iliaca communis dextra 5 Discus intervertebralis 43 Ligg. sacroiliaca anteriora 83 V. cava inferior 6 Crista iliaca 44 Lig. iliolumbale 84 Pars abdominalis aortae 7 Ala ossis ilii 45 Ligg. sacroiliaca interossea 85 A. iliaca communis sinistra 8 Spina iliaca anterior 46 Lig. sacroiliacum posterius 86 N. ischiadicus superior 47 Lig. supraspinale 87 A. femoralis 9 Spina iliaca anterior 88 Plexus sacralis inferior 89 N. dorsalis clitoridis 10 Acetabulum H20/3, H20/4 90 N. pudendus 11 Foramen obturatum 48 Rectum 91 M. piriformis 12 Ramus ossis ischii 49 Ovarium 92 Nn. rectales inferiores 13 Ramus superior ossis pubis 50 Tuba uterina 93 Nn. perineales 14 Ramus inferior ossis pubis 51 Uterus 94 Nn. labiales posteriores 15 Tuberculum pubicum 52 Lig. ovarii proprium 95 V. femoralis 16 Crista pubica 53 Vesica urinaria 96 V. iliaca communis sinistra 17 Symphysis pubica 54 Membrana perinei 97 A. glutealis superior 18 Corpus ossis pubis 55 M. obturatorius internus 98 A. glutealis inferior 19 Tuber ischiadicum 56 M. transversus perinei 99 A. pudenda interna 20 Spina ischiadica profundus 100 ® A.
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Periacetabular Osteotomy (PAO) of the Hip
UW HEALTH SPORTS REHABILITATION Rehabilitation Guidelines For Periacetabular Osteotomy (PAO) Of The Hip The hip joint is composed of the femur (the thigh bone) and the Lunate surface of acetabulum acetabulum (the socket formed Articular cartilage by the three pelvic bones). The Anterior superior iliac spine hip joint is a ball and socket joint Head of femur Anterior inferior iliac spine that not only allows flexion and extension, but also rotation of the Iliopubic eminence Acetabular labrum thigh and leg (Fig 1). The head of Greater trochanter (fibrocartilainous) the femur is encased by the bony Fat in acetabular fossa socket in addition to a strong, (covered by synovial) Neck of femur non-compliant joint capsule, Obturator artery making the hip an extremely Anterior branch of stable joint. Because the hip is Intertrochanteric line obturator artery responsible for transmitting the Posterior branch of weight of the upper body to the obturator artery lower extremities and the forces of Obturator membrane Ischial tuberosity weight bearing from the foot back Round ligament Acetabular artery up through the pelvis, the joint (ligamentum capitis) Lesser trochanter Transverse is subjected to substantial forces acetabular ligament (Fig 2). Walking transmits 1.3 to Figure 1 Hip joint (opened) lateral view 5.8 times body weight through the joint and running and jumping can generate forces across the joint fully form, the result can be hip that is shared by the whole hip, equal to 6 to 8 times body weight. dysplasia. This causes the hip joint including joint surfaces and the to experience load that is poorly previously-mentioned acetabular The labrum is a circular, tolerated over time, resulting in labrum.
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Anatomic Study of Innervation of the Anterior Hip Capsule: Implication
Regional Anesthesia & Pain Medicine: first published as 10.1097/AAP.0000000000000701 on 1 February 2018. Downloaded from CHRONIC AND INTERVENTIONAL PAIN ORIGINAL ARTICLE Anatomic Study of Innervation of the Anterior Hip Capsule Implication for Image-Guided Intervention Anthony J. Short, MBBS,* Jessi Jo G. Barnett,† Michael Gofeld, MD,‡ Ehtesham Baig, MD,‡ KarenLam,MD,‡ Anne M.R. Agur, PhD,† and Philip W.H. Peng, MBBS, FRCPC, Founder (Pain Medicine)‡§ develop painful hip OA by the age of 85 years.1 The management Background and Objectives: The purpose of this cadaveric study was strategies consist of pharmacologic treatments, physical therapy, to determine the pattern of anterior hip capsule innervation and the associ- interventional techniques, and surgery.2 Total hip arthroplasty is ated bony landmarks for image-guided radiofrequency denervation. considered for patients with advanced OA and moderate to severe Methods: Thirteen hemipelvises were dissected to identify innervation of symptoms.3 New, noninvasive treatment options need to be devel- the anterior hip capsule. The femoral (FN), obturator (ON), and accessory oped for patients who cannot undergo surgery and for those with obturator (AON) nerves were traced distally, and branches supplying the severe postoperative pain. Radiofrequency denervation (RFD), anterior capsule documented. The relationships of the branches to bony known to be effective for facet and sacroiliac joint arthritis,4 is landmarks potentially visible with ultrasound were identified. now emerging as a possible treatment for chronic hip pain. In a re- Results: The anterior hip capsule received innervation from the FNs and view article, Gupta et al5 described 8 case reports/case series ONs in all specimens and the AON in 7 of 13 specimens.
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Tragelaphus Spekii
ORIGINAL COMMUNICATION Anatomy Journal of Africa. 2021. Vol 10 (1):1974-1979 GROSS ANATOMICAL STUDIES ON THE HIND LIMB OF THE SITATUNGA (Tragelaphus spekii). Kenechukwu Tobechukwu Onwuama, Sulaiman Olawoye Salami, Esther Solomon Kigir, Alhaji Zubair Jaji Department of Veterinary Anatomy, University of Ilorin, Ilorin, Nigeria Abbreviated title: Hind limb bones of the Sitatunga Corresponding address: Kenechukwu Tobechukwu Onwuama. Telephone number: 08036425961. E-mail address: [email protected] ABSTRACT The Sitatunga, Tragelaphus spekii, is a swamp dwelling antelope resident in West Africa. This study was carried out to document unique morphological and numerical information on the hind limb bones of this ruminant. Two (2) adults of both sexes were obtained as carcass at different times after post-mortem examination and prepared to extract the bones via cold water maceration for use in the study. The presence of a sharp pointed ilio-pubic eminence at the junction between the cranial border of the ilium and pubis; less prominent ischial tuber, inconspicuous ischiatic arch and a large oval obturator foramen were unique features of the Ossa coxarum that distinguished it from that of small ruminants. The Femur’s medial condyle was obliquely orientated, the fibula was absent while the long Tibia was typical of ruminant presentation. It was observed that the morphological features of the tarsals and Pes were also typical. However, the last Phalanges presented characteristic long triangular shaped bones with sharp pointed ends. The total number of bones making up the forelimb was accounted to be 45. In conclusion, this study has provided a baseline data for further biological, archeological and comparative anatomical studies.
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Iliopsoas Muscle Injury in Dogs
Revised January 2014 3 CE Credits Iliopsoas Muscle Injury in Dogs Quentin Cabon, DMV, IPSAV Centre Vétérinaire DMV Montréal, Quebec Christian Bolliger, Dr.med.vet, DACVS, DECVS Central Victoria Veterinary Hospital Victoria, British Columbia Abstract: The iliopsoas muscle is formed by the psoas major and iliacus muscles. Due to its length and diameter, the iliopsoas muscle is an important flexor and stabilizer of the hip joint and the vertebral column. Traumatic acute and chronic myopathies of the iliopsoas muscle are commonly diagnosed by digital palpation during the orthopedic examination. Clinical presentations range from gait abnormalities, lameness, and decreased hip joint extension to irreversible fibrotic contracture of the muscle. Rehabilitation of canine patients has to consider the inciting cause, the severity of pathology, and the presence of muscular imbalances. ontrary to human literature, few veterinary articles have been Box 2. Main Functions of the Iliopsoas Muscle published about traumatic iliopsoas muscle pathology.1–6 This is likely due to failure to diagnose the condition and the • Flexion of the hip joint C 5 presence of concomitant orthopedic problems. In our experience, repetitive microtrauma of the iliopsoas muscle in association with • Adduction and external rotation of the femur other orthopedic or neurologic pathologies is the most common • Core stabilization: clinical presentation. —Flexion and stabilization of the lumbar spine when the hindlimb is fixed Understanding applied anatomy is critical in diagnosing mus- —Caudal traction on the trunk when the hindlimb is in extension cular problems in canine patients (BOX 1 and BOX 2; FIGURE 1 and FIGURE 2). Pathophysiology of Muscular Injuries Box 1.
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Psoas Muscle and Lumbar Spine Stability: a Concept Uniting Existing Controversies Critical Review and Hypothesis
Eur Spine J (2000) 9:577–585 © Springer-Verlag 2000 NEW IDEAS L. Penning Psoas muscle and lumbar spine stability: a concept uniting existing controversies Critical review and hypothesis Abstract Psoas muscle (PM) func- tate the LS, will be brought into Received: 12 February 2000 Revised: 12 May 2000 tion with regard to the lumbar spine more lordosis, with maintenance of Accepted: 22 May 2000 (LS) is disputed. Electromyographic vertical position, if a string fastened studies attribute to the PM a possible at its upper end is pulled downward role as stabilizer. Anatomical text- in a very specific direction. Con- books describe the PM as an LS versely, any increase of lordosis of flexor, but not a stabilizer. According the strip brought about by vertical to more recent anatomical studies, downward pushing of its top, will be the PM does not act on the LS, be- stabilized by tightening the pulling cause it tends to pull the LS into string in the same specific direction. more lordosis by simultaneously As this direction corresponded with flexing the lower and extending the the psoas orientation, the experi- upper region, but due to the short ments show that the PM probably moment arms of its fascicles, this functions as a stabilizer of the lor- would require maximal muscular ef- dotic LS in an upright stance by fort and would expose the LS motion adapting the state of contraction of segments to dangerous compression each of its fascicles to the momen- and shear. The findings of the pre- tary degree of lordosis imposed by sent study indicate that the described factors outside the LS, such as gen- opposite action of the PM on upper eral posture, general muscle activity L.
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A Study of Sexual Dimorphism of Human Hip Bone by Measurements Between Ileum and Pubis
Original article A study of sexual dimorphism of human hip bone by measurements between ileum and pubis Vijayeendra Kanabur1, Anita Deshpande2 1Associate Professor, Department of Anatomy, Al Ameen Medical College, Vijaypura, Karnataka, India 2Assistant Professor, Department of Physiology, Al Ameen Medical College, Vijaypura, Karnataka, India Abstract Background: Identification of sex of an individual from human skeletal remains is of great medicolegal significance. The hip bone is considered as an ideal bone for sex determination as it provides the highest accuracy levels for sex determination. Aim: The present study was done to find out important measurements between ileum and pubis that would significantly differentiate the sex of human hip bone. Methods: For this study 65 human hip bones (35 male and 30 female) of known sex were obtained from the department of Anatomy. Three parameters were used for determination of sex of human hip bone. These were 1) Distance between anterior inferior iliac spine to pubic tubercle 2) Distance between anterior inferior iliac spine to superior end of the symphysial surface and 3) Distance from the anterior inferior iliac spine to iliopubic eminence. These parameters were measured using the instrument vernier caliper. Results: In the present study significant statistical difference was seen in between the mean values of 1. Distance between the anterior inferior iliac spine to pubic tubercle. The mean value on the right side was found to be 8.86 cm in males and 6.93 cm in females. On the left side the mean value was found to be 8.12 cm in males and 6.20 cm in females.
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Morphometric Analysis of Iliac Crest of Pelvic Bone for Sex Determination
COMPETITIVE STRATEGY MODEL AND ITS IMPACT ON MICRO BUSINESS UNITOF LOCAL DEVELOPMENT BANKSIN JAWA PJAEE, 17 (7) (2020) MORPHOMETRIC ANALYSIS OF ILIAC CREST OF PELVIC BONE FOR SEX DETERMINATION Bharathi R1, Karthik Ganesh M2 1Saveetha Dental College and Hospitals,Saveetha Institute of Medical and technical Sciences, Saveetha University,Chennai. 2Assistant ProfessorDepartment of Anatomy,Saveetha Dental College and Hospitals, Saveetha Institute of Medical and technical Sciences,Saveetha University,Chennai. [email protected] ,[email protected] Bharathi R, Karthik Ganesh M. MORPHOMETRIC ANALYSIS OF ILIAC CREST OF PELVIC BONE FOR SEX DETERMINATION-- Palarch’s Journal Of Archaeology Of Egypt/Egyptology 17(7), 1228-1235. ISSN 1567-214x Keywords: Pelvic bone, iliac crest, anterior-superior iliac spine, posterior-superior iliac spine, sex. ABSTRACT: Identification of the sex of the skeletal remains is a important step in biological profiling of the skeletal remains or a badly burnt body in establishing the identity of the individual in forennsic medicine. The parameters of hip bone can be utilised for sex determination in South Indian population. To analyse the dry human pelvic bone with reference to iliac crest to determine the sexual dimorphism. In the present study a total of 40 dry human pelvic bones of unknown sex and without any gross abnormality were collected from the Department of Anatomy, Saveetha Dental College, Chennai for evaluation. With the help of Vernier Calliper, the measurements like the length between the anterior-superior iliac spine and mid iliac crest, length between the posterior-superior iliac spine and mid iliac crest and width of the iliac crest was measured.
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Anatomical Variation of the Psoas Valley: a Scoping Review
Anatomical Variation of the Psoas Valley: A Scoping Review Yuichi Kuroda Addenbrooke's Cambridge University Hospitals NHS Foundation Trust Ankit Rai University of Cambridge Masayoshi Saito Addenbrooke's Cambridge University Hospitals NHS Foundation Trust Vikas Khanduja ( [email protected] ) University of Cambridge https://orcid.org/0000-0003-3408-7020 Research article Keywords: Psoas-U, anterior depression, iliopsoas impingement, iliopsoas notch Posted Date: March 24th, 2020 DOI: https://doi.org/10.21203/rs.3.rs-16684/v2 License: This work is licensed under a Creative Commons Attribution 4.0 International License. Read Full License Version of Record: A version of this preprint was published at BMC Musculoskeletal Disorders on April 10th, 2020. See the published version at https://doi.org/10.1186/s12891-020-03241-1. Page 1/17 Abstract Background: This scoping review aimed to investigate the literature on the anatomy of the psoas valley, an anterior depression on the acetabular rim, and propose a unied denition of the anatomical structure, describe its dimensions, anatomical variations and clinical implications. Methods: A systematic computer search of EMBASE, PubMed and Cochrane for literature related to the psoas valley was undertaken using Preferred Reporting Items for Systematic Reviews and Meta-analyses (PRISMA) guidelines. Clinical outcome studies, prospective/retrospective case series, case reports and review articles that described the psoas valley and its synonyms were included. Studies on animals as well as book chapters were excluded. Results: Of the 313 articles, the ltered literature search identied 14 papers describing the psoas valley and its synonyms such as iliopsoas notch, a notch between anterior inferior iliac spine and the iliopubic eminence, Psoas-U and anterior wall depression.
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Rehabilitation Guidelines for Hip Arthroscopy Procedures
JUSTIN D. HUDSON, MD Orthopaedic Surgery and Sports Medicine JustinHudsonMD.com [email protected] P: (541) 242-4812 F: (541) 242-4813 Rehabilitation Guidelines for Hip Arthroscopy Procedures Lunate surface of acetabulum Articular cartilage Anterior superior iliac spine The hip is a ball-and-socket joint. Head of femur Anterior inferior iliac spine The socket is formed by the Iliopubic eminence acetabulum, which is part of the Acetabular labrum large pelvis bone. The ball is the Greater trochanter (fibrocartilainous) femoral head, which is the upper Fat in acetabular fossa (covered by synovial) end of the femur (thighbone).The hip Neck of femur Obturator artery joint allows flexion and extension as well as rotation of the thigh and Anterior branch of leg. Because the hip is responsible Intertrochanteric line obturator artery Posterior branch of for transmitting the weight of the obturator artery upper body to the lower extremities, Obturator membrane the joint is subjected to substantial Ischial tuberosity forces. Walking transmits 1.3 to Round ligament Acetabular artery (ligamentum capitis) Lesser trochanter Transverse 5.8 times body weight through the acetabular ligament joint. Running and jumping can generate forces across the joint Figure 1 Hip joint (opened) lateral view equal to 6 to 8 times body weight. The acetabulum is ringed by strong fibrocartilage called the labrum. The labrum forms a gasket around the socket, Spine creating a tight seal and helping to provide stability to the joint. The iliopsoas tendon lays across the anterior hip joint and connects the Iliopsoas muscle-tendon fibers of the psoas major and iliacus muscles to the proximal femur (lesser Iliopectineal trochanter).
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Secular Change of the Modern Human Bony Pelvis: Examining Morphology in the United States Using Metrics and Geometric Morphometry
University of Tennessee, Knoxville TRACE: Tennessee Research and Creative Exchange Doctoral Dissertations Graduate School 5-2010 Secular Change of the Modern Human Bony Pelvis: Examining Morphology in the United States using Metrics and Geometric Morphometry Kathryn R.D. Driscoll University of Tennessee - Knoxville, [email protected] Follow this and additional works at: https://trace.tennessee.edu/utk_graddiss Part of the Biological and Physical Anthropology Commons, and the Obstetrics and Gynecology Commons Recommended Citation Driscoll, Kathryn R.D., "Secular Change of the Modern Human Bony Pelvis: Examining Morphology in the United States using Metrics and Geometric Morphometry. " PhD diss., University of Tennessee, 2010. https://trace.tennessee.edu/utk_graddiss/688 This Dissertation is brought to you for free and open access by the Graduate School at TRACE: Tennessee Research and Creative Exchange. It has been accepted for inclusion in Doctoral Dissertations by an authorized administrator of TRACE: Tennessee Research and Creative Exchange. For more information, please contact [email protected]. To the Graduate Council: I am submitting herewith a dissertation written by Kathryn R.D. Driscoll entitled "Secular Change of the Modern Human Bony Pelvis: Examining Morphology in the United States using Metrics and Geometric Morphometry." I have examined the final electronic copy of this dissertation for form and content and recommend that it be accepted in partial fulfillment of the equirr ements for the degree of Doctor of Philosophy, with a major in Anthropology. Richard L. Jantz, Major Professor We have read this dissertation and recommend its acceptance: Andrew Kramer, Murray K. Marks, Dawn P. Coe Accepted for the Council: Carolyn R.
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How to Choose Infra-Acetabular Screw? Option of All-In Or In- Out-In Screw Based on Computed Tomography Measurement of Infra-Acetabular Corridor
How to choose infra-acetabular screw? Option of All-In or In- Out-in Screw Based on Computed Tomography Measurement of Infra-Acetabular Corridor Quanyi Lu First Aliated Hospital of Chongqing Medical University Runtao Zhou First Aliated Hospital of Chongqing Medical University Shichang Gao ( [email protected] ) First Aliated Hospital of Chongqing Medical University Anlin Liang First Aliated Hospital of Chongqing Medical University Mingming Yang First Aliated Hospital of Chongqing Medical University Haitao Yang First Aliated Hospital of Chongqing Medical University Research Article Keywords: acetabular fracture, infra-acetabular corridorcomputed tomography measurement, all-in screw, in-out-in screw Posted Date: February 22nd, 2021 DOI: https://doi.org/10.21203/rs.3.rs-215044/v1 License: This work is licensed under a Creative Commons Attribution 4.0 International License. Read Full License Page 1/15 Abstract Background: The infra-acetabular corridor is quite narrow, which makes a challenge for the orthopedists to insert the screw. This study aimed to explore the relationship between the infra-acetabular corridor diameter (IACD) and the minimum thickness of medial acetabular wall(MTMAW), and to clarify the way of screw placement. Methods: The Computed tomography (CT) data of 100 normal adult pelvises (50 males and 50 females respectively) were collected and pelvis three-dimensional(3D) reconstruction was performed by using Mimics software and the 3D model was imported into Geomagic Studio software. The perspective of acetabulum was carried out orienting from iliopubic eminence to ischial tuberosity and the IACD was measured by placing virtual screws which was vertical to the corridor transverse section of "teardrop". The relationship between IACD and MTMAW was analyzed.
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