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Isolated Avulsion Fracture of the Lesser Tuberosity of The
(aspects of trauma) Isolated Avulsion Fracture of the Lesser Tuberosity of the Humerus in an Adult: Case Report and Literature Review Aman Dhawan, MD, Kevin Kirk, DO, Thomas Dowd, MD, and William Doukas, MD solated avulsion fractures of also describe our operative technique, comminuted 3-cm lesser tuberosity the lesser tuberosity of the including use of heavy, nonabsorb- fracture fragment retracted approxi- proximal humerus are rare. able suture. mately 2 cm from the donor site We report the case of a right- (Figures 1B–1D). No biceps tendon Ihand–dominant woman in her early ASE EPORT subluxation or injury and no intra- C R 30s who sustained such an injury, A right-hand–dominant woman in articular pathology were noted. with an intact subscapularis tendon her early 30s presented with right The lesser tuberosity fracture was attached to the lesser tuberosity frag- shoulder pain 1 day after a fall down surgically repaired less than 2 weeks ment. Treatment included surgery to a flight of stairs. During the acci- after injury. Through a deltopectoral restore tension to the subscapularis dent, as her feet slipped out from approach, the rotator interval and muscle and maintain the force couple underneath her and her torso fell the 3×2-cm fracture fragment were about the shoulder joint. One year after injury, the patient reported no pain, excellent range of motion, and “[To be diagnosed] this injury...requires... return to activities. This case demonstrates the diag- careful review of orthogonal radiographs nostic challenge of this injury, which requires a high index of suspicion and and advanced imaging.” careful review of orthogonal radio- graphs and advanced imaging. -
List: Bones & Bone Markings of Appendicular Skeleton and Knee
List: Bones & Bone markings of Appendicular skeleton and Knee joint Lab: Handout 4 Superior Appendicular Skeleton I. Clavicle (Left or Right?) A. Acromial End B. Conoid Tubercle C. Shaft D. Sternal End II. Scapula (Left or Right?) A. Superior border (superior margin) B. Medial border (vertebral margin) C. Lateral border (axillary margin) D. Scapular notch (suprascapular notch) E. Acromion Process F. Coracoid Process G. Glenoid Fossa (cavity) H. Infraglenoid tubercle I. Subscapular fossa J. Superior & Inferior Angle K. Scapular Spine L. Supraspinous Fossa M. Infraspinous Fossa III. Humerus (Left or Right?) A. Head of Humerus B. Anatomical Neck C. Surgical Neck D. Greater Tubercle E. Lesser Tubercle F. Intertubercular fossa (bicipital groove) G. Deltoid Tuberosity H. Radial Groove (groove for radial nerve) I. Lateral Epicondyle J. Medial Epicondyle K. Radial Fossa L. Coronoid Fossa M. Capitulum N. Trochlea O. Olecranon Fossa IV. Radius (Left or Right?) A. Head of Radius B. Neck C. Radial Tuberosity D. Styloid Process of radius E. Ulnar Notch of radius V. Ulna (Left or Right?) A. Olecranon Process B. Coronoid Process of ulna C. Trochlear Notch of ulna Human Anatomy List: Bones & Bone markings of Appendicular skeleton and Knee joint Lab: Handout 4 D. Radial Notch of ulna E. Head of Ulna F. Styloid Process VI. Carpals (8) A. Proximal row (4): Scaphoid, Lunate, Triquetrum, Pisiform B. Distal row (4): Trapezium, Trapezoid, Capitate, Hamate VII. Metacarpals: Numbered 1-5 A. Base B. Shaft C. Head VIII. Phalanges A. Proximal Phalanx B. Middle Phalanx C. Distal Phalanx ============================================================================= Inferior Appendicular Skeleton IX. Os Coxae (Innominate bone) (Left or Right?) A. -
Body Mechanics As the Rotator Cuff Gether in a Cuff-Shape Across the Greater and Lesser Tubercles the on Head of the Humerus
EXPerT CONTENT Body Mechanics by Joseph E. Muscolino | Artwork Giovanni Rimasti | Photography Yanik Chauvin Rotator Cuff Injury www.amtamassage.org/mtj WORKING WITH CLieNTS AFFecTED BY THIS COmmON CONDITION ROTATOR CUFF GROUP as the rotator cuff group because their distal tendons blend and attach to- The four rotator cuff muscles are gether in a cuff-shape across the greater and lesser tubercles on the head of the supraspinatus, infraspinatus, the humerus. Although all four rotator cuff muscles have specific concen- teres minor, and subscapularis (Fig- tric mover actions at the glenohumeral (GH) joint, their primary functional ure 1). These muscles are described importance is to contract isometrically for GH joint stabilization. Because 17 Before practicing any new modality or technique, check with your state’s or province’s massage therapy regulatory authority to ensure that it is within the defined scope of practice for massage therapy. the rotator cuff group has both mover and stabilization roles, it is extremely functionally active and therefore often physically stressed and injured. In fact, after neck and low back conditions, the shoulder is the most com- Supraspinatus monly injured joint of the human body. ROTATOR CUFF PATHOLOGY The three most common types of rotator cuff pathology are tendinitis, tendinosus, and tearing. Excessive physi- cal stress placed on the rotator cuff tendon can cause ir- ritation and inflammation of the tendon, in other words, tendinitis. If the physical stress is chronic, the inflam- matory process often subsides and degeneration of the fascial tendinous tissue occurs; this is referred to as tendinosus. The degeneration of tendinosus results in weakness of the tendon’s structure, and with continued Teres minor physical stress, whether it is overuse microtrauma or a macrotrauma, a rotator cuff tendon tear might occur. -
Should Joint Presentation File
6/5/2017 The Shoulder Joint Bones of the shoulder joint • Scapula – Glenoid Fossa Infraspinatus fossa – Supraspinatus fossa Subscapular fossa – Spine Coracoid process – Acromion process • Clavicle • Humerus – Greater tubercle Lesser tubercle – Intertubercular goove Deltoid tuberosity – Head of Humerus Shoulder Joint • Bones: – humerus – scapula Shoulder Girdle – clavicle • Articulation – glenohumeral joint • Glenoid fossa of the scapula (less curved) • head of the humerus • enarthrodial (ball and socket) 1 6/5/2017 Shoulder Joint • Connective tissue – glenoid labrum: cartilaginous ring, surrounds glenoid fossa • increases contact area between head of humerus and glenoid fossa. • increases joint stability – Glenohumeral ligaments: reinforce the glenohumeral joint capsule • superior, middle, inferior (anterior side of joint) – coracohumeral ligament (superior) • Muscles play a crucial role in maintaining glenohumeral joint stability. Movements of the Shoulder Joint • Arm abduction, adduction about the shoulder • Arm flexion, extension • Arm hyperflexion, hyperextension • Arm horizontal adduction (flexion) • Arm horizontal abduction (extension) • Arm external and internal rotation – medial and lateral rotation • Arm circumduction – flexion, abduction, extension, hyperextension, adduction Scapulohumeral rhythm • Shoulder Joint • Shoulder Girdle – abduction – upward rotation – adduction – downward rotation – flexion – elevation/upward rot. – extension – Depression/downward rot. – internal rotation – Abduction (protraction) – external rotation -
Suprascapular Nerve Lesions at the Spinoglenoid Notch: Report of Three Cases and Review of the Literature 243
Journal ofNeurology, Neurosurgery, and Psychiatry 1991;54:241-243 241 Suprascapular nerve lesions at the spinoglenoid J Neurol Neurosurg Psychiatry: first published as 10.1136/jnnp.54.3.241 on 1 March 1991. Downloaded from notch: report of three cases and review of the literature Jay A Liveson, Michael J Bronson, Michael A Pollack Abstract of root involvement (cervical pain, and change Lesions of the suprascapular nerve can from Valsalva's manoeuvre). His past medical occur at the supraspinatus notch (SSN) history was negative. On physical examination or at the spinoglenoid notch (SGN). Elec- cranial nerves were normal. No weakness was tromyographic (EMG), evaluation of the detected on careful manual muscle examin- infraspinatus, and especially the supra- ation. Sensation was intact. Deep tendon spinatus muscles distinguishes SGN reflexes were active and symmetrical with no from SSN lesions. Three cases of SGN pathological reflexes. There was no Homer's lesions, which are more common than sign. SSN lesions, are presented. The patient gave up weight lifting and started a programme of physiotherapy. His shoulder ache resolved rapidly, but his muscle Entrapment of the suprascapular nerve at the bulk did not return to normal for another 12 suprascapular notch (SSN) was first described months. He reported completely normal func- in 1963 by Kopell and Thompson.' No alter- tion. native entrapment site was recognised until 1981 when the first case of spinoglenoid notch Case 2 (SGN) entrapmnt was described by Ganzhorn A 22 year old right handed male was skeet et al.2 Since then nine additional cases of SGN shooting, a month before his examination. -
Arthroscopic Decompression of the Suprascapular Nerve at the Spinoglenoid Notch and Suprascapular Notch Through the Subacromial Space
Technical Note Arthroscopic Decompression of the Suprascapular Nerve at the Spinoglenoid Notch and Suprascapular Notch Through the Subacromial Space Neil Ghodadra, M.D., Shane J. Nho, M.D., M.S., Nikhil N. Verma, M.D., Stefanie Reiff, B.A., Dana P. Piasecki, M.D., Matthew T. Provencher, M.D., and Anthony A. Romeo, M.D. Abstract: Suprascapular nerve entrapment can cause disabling shoulder pain. Suprascapular nerve release is often performed for compression neuropathy and to release pressure on the nerve associated with arthroscopic labral repair. This report describes a novel all-arthroscopic technique for decom- pression of the suprascapular nerve at the suprascapular notch or spinoglenoid notch through a subacromial approach. Through the subacromial space, spinoglenoid notch cysts can be visualized between the supraspinatus and infraspinatus at the base of the scapular spine. While viewing the subacromial space through the lateral portal, the surgeon can use a shaver through the posterior portal to decompress a spinoglenoid notch cyst at the base of the scapular spine. To decompress the suprascapular nerve at the suprascapular notch, a shaver through the posterior portal removes the soft tissue on the acromion and distal clavicle to expose the coracoclavicular ligaments. The medial border of the conoid ligament is identified and followed to its coracoid attachment. The supraspinatus muscle is retracted with a blunt trocar placed through an accessory Neviaser portal. The transverse scapular ligament, which courses inferior to the suprascapular artery, is sectioned with arthroscopic scissors, and the suprascapular nerve is decompressed. Key Words: Arthroscopy—Suprascapular nerve—Transverse scapular ligament—Suprascapular notch—Rotator cuff—Shoulder. -
Table 9-10 Ligaments of the Wrist and Their Function
Function and Movement of the Hand 283 Table 9-10 Ligaments of the Wrist and Their Function Extrinsic Ligaments Function Palmar radiocarpal Volarly stabilizes radius to carpal bones; limits excessive wrist extension Dorsal radiocarpal Dorsally stabilizes radius to carpal bones; limits excessive wrist flexion Ulnar collateral Provides lateral stability of ulnar side of wrist between ulna and carpals Radial collateral Provides lateral stability of radial side of wrist between radius and carpals Ulnocarpal complex and articular Stabilizes and helps glide the ulnar side of wrist; stabilizes distal disk (or triangular fibrocartilage radioulnar joint complex) Intrinsic Ligaments Palmar midcarpal Forms and stabilizes the proximal and distal rows of carpal bones Dorsal midcarpal Forms and stabilizes the proximal and distal rows of carpal bones Interosseous Intervenes between each carpal bone contained within its proximal or distal row Accessory Ligament Transverse carpal Stabilizes carpal arch and contents of the carpal tunnel Adapted from Hertling, D., & Kessler, R. (2006). Management of common musculoskeletal disorders: Physical therapy principles and methods. Philadelphia, PA: Lippincott, Williams & Wilkins.; Oatis, C. A. (2004). Kinesiology: The mechanics and pathomechanics of human movement. Philadelphia, PA: Lippincott, Williams & Wilkins.; Weiss, S., & Falkenstein, N. (2005). Hand rehabilitation: A quick reference guide and review. St. Louis, MO: Mosby Elsevier. The radial and ulnar collateral ligaments provide lateral and medial support, respectively, to the wrist joint. The ulnocarpal complex is more likely to be referred to as the triangular fibro- cartilage complex (TFCC) and includes the articular disk of the wrist. The TFCC is the major stabilizer of the distal radioulnar joint (DRUJ) and can tear after direct compressive force such as a fall on an outstretched hand. -
Upper Extremity Injuries in Pediatric Athletes
Review Article Page 1 of 10 Upper extremity injuries in pediatric athletes Kristen M. Sochol, Daniel A. Charen, Jaehon Kim Department of Orthopedics at Mount Sinai Hospital, New York, NY, USA Contributions: (I) Conception and design: All authors; (II) Administrative support: All authors; (III) Provision of study materials or patients: All authors; (IV) Collection and assembly of data: All authors; (V) Data analysis and interpretation: All authors; (VI) Manuscript writing: All authors; (VII) Final approval of manuscript: All authors. Correspondence to: Kristen M. Sochol, MD. Department of Orthopedics at Mount Sinai Hospital, 5E 98th St, New York, NY 10029, USA. Email: [email protected]. Abstract: Upper extremity injuries in the pediatric patient are common, but are often more difficult to diagnose compared to their adult counterparts due to the gradual progression of cartilage ossification. Common pediatric upper extremity injuries include fractures and soft tissue trauma. Less prevalent injuries include sport specific overuse injuries. Fractures in the pediatric population are best described using the Salter-Harris classification, which has management and prognostic implications. Most pediatric upper extremity injuries can be managed with an initial trial of immobilization and early range of motion, followed by surgical intervention if necessary. Children have a robust healing response to bony and soft tissue injuries, and have good outcomes with appropriate management. Keywords: Pediatric athletes; upper extremity; Salter-Harris; overuse; injury Received: 14 February 2018; Accepted: 08 May 2018; Published: 15 May 2018. doi: 10.21037/aoj.2018.05.04 View this article at: http://dx.doi.org/10.21037/aoj.2018.05.04 Introduction joints are constrained by a network of ligaments that are primarily named after their attachment sites. -
Carpals and Tarsals of Mule Deer, Black Bear and Human: an Osteology Guide for the Archaeologist
Western Washington University Western CEDAR WWU Graduate School Collection WWU Graduate and Undergraduate Scholarship 2009 Carpals and tarsals of mule deer, black bear and human: an osteology guide for the archaeologist Tamela S. Smart Western Washington University Follow this and additional works at: https://cedar.wwu.edu/wwuet Part of the Anthropology Commons Recommended Citation Smart, Tamela S., "Carpals and tarsals of mule deer, black bear and human: an osteology guide for the archaeologist" (2009). WWU Graduate School Collection. 19. https://cedar.wwu.edu/wwuet/19 This Masters Thesis is brought to you for free and open access by the WWU Graduate and Undergraduate Scholarship at Western CEDAR. It has been accepted for inclusion in WWU Graduate School Collection by an authorized administrator of Western CEDAR. For more information, please contact [email protected]. MASTER'S THESIS In presenting this thesis in partial fulfillment of the requirements for a master's degree at Western Washington University, I grant to Western Washington University the non-exclusive royalty-free right to archive, reproduce, distribute, and display the thesis in any and all forms, including electronic format, via any digital library mechanisms maintained by WWu. I represent and warrant this is my original work, and does not infringe or violate any rights of others. I warrant that I have obtained written permissions from the owner of any third party copyrighted material included in these files. I acknowledge that I retain ownership rights to the copyright of this work, including but not limited to the right to use all or part of this work in future works, such as articles or books. -
REVIEW ARTICLE Osteoarthritis of the Wrist
REVIEW ARTICLE Osteoarthritis of the Wrist Krista E. Weiss, Craig M. Rodner, MD From Harvard College, Cambridge, MA and Department of Orthopaedic Surgery, University of Connecticut Health Center, Farmington, CT. Osteoarthritis of the wrist is one of the most common conditions encountered by hand surgeons. It may result from a nonunited or malunited fracture of the scaphoid or distal radius; disruption of the intercarpal, radiocarpal, radioulnar, or ulnocarpal ligaments; avascular necrosis of the carpus; or a developmental abnormality. Whatever the cause, subsequent abnormal joint loading produces a spectrum of symptoms, from mild swelling to considerable pain and limitations of motion as the involved joints degenerate. A meticulous clinical and radiographic evaluation is required so that the pain-generating articulation(s) can be identi- fied and eliminated. This article reviews common causes of wrist osteoarthritis and their surgical treatment alternatives. (J Hand Surg 2007;32A:725–746. Copyright © 2007 by the American Society for Surgery of the Hand.) Key words: Wrist, osteoarthritis, arthrodesis, carpectomy, SLAC. here are several different causes, both idio- of events is analogous to SLAC wrist and has pathic and traumatic, of wrist osteoarthritis. been termed scaphoid nonunion advanced collapse Untreated cases of idiopathic carpal avascular (SNAC). Wrist osteoarthritis can also occur second- T 1 2 necrosis, as in Kienböck’s or Preiser’s disease, may ary to an intra-articular fracture of the distal radius or result in radiocarpal arthritis. Congenital wrist abnor- ulna or from an extra-articular fracture resulting in malities, such as Madelung’s deformity,3,4 can lead malunion and abnormal joint loading. -
Suprascapular Nerve Entrapment: Technique for Arthroscopic Release
Techniques in Shoulder and Elbow Surgery 7(2):000–000, 2006 Ó 2006 Lippincott Williams & Wilkins, Philadephia | REVIEW | Suprascapular Nerve Entrapment: Technique for Arthroscopic Release Peter J. Millett, MD, MSc Steadman Hawkins Clinic, Vail, CO Harvard Medical School Boston, MA R. Shane Barton, MD, Iva´n H. Pacheco, MD, and Reuben Gobezie, MD Harvard Shoulder Service Harvard Medical School Brigham and Women’s Hospital Massachusetts General Hospital Boston, MA | ABSTRACT with suprascapular nerve palsy may present with an often vague range of symptoms or even be asympto- Suprascapular neuropathy can be caused by a variety of matic.3 Pain over the posterolateral shoulder or easy anatomic and pathologic entities as the nerve courses fatigability with overhead activities may be reported, or from the brachial plexus through the suprascapular and painless weakness of external rotation with or without spinoglenoid notches to innervate the supraspinatus and spinatus muscle atrophy may be noted. Compression of infraspinatus muscles. We describe techniques for arthro- the nerve at both the suprascapular and spinoglenoid scopically accessing the nerve at both the suprascapular notches are commonly reported mechanisms of injury and spinoglenoid notches and decompressing structural and will be discussed in detail. lesions that may be contributing to the neuropathy. The physical examination plays a critical role in Keywords: suprascapular neuropathy, suprascapular discerning the site of suprascapular nerve injury. notches, spinoglenoid notches, cyst decompression, arthro- Clinical observation of the patient’s shoulder girdle is scopic release important. More proximal injury, as seen with supra- | HISTORICAL PERSPECTIVE scapular notch compression, may result in atrophy of both the supraspinatus and infraspinatus, whereas more Isolated injury to the suprascapular nerve has long been distal compression at the spinoglenoid notch will result recognized as an etiologic entity producing shoulder pain in isolated infraspinatus weakness and atrophy (Fig. -
Scapular Dyskinesis
Scapular Dyskinesis Presented by: Scott Sevinsky MSPT Presented by: Scott Sevinsky SPT 1 What is Scapular Dyskinesis? Alteration in the normal static or dynamic position or motion of the scapula during coupled scapulohumeral movements. Other names given to this catch-all phrase include: “floating scapula” and “lateral scapular slide”.1, 2 1 Alterations in scapular position and motion occur in 68 – 100% of patients with shoulder injuries. Scapular Dyskinesis Classification System 1, 3 Pattern Definitions Inferior angle At rest, the inferior medial scapular border may be prominent dorsally. During arm motion, the inferior (type I) angle tilts dorsally and the acromion tilts ventrally over the top of the thorax. The axis of the rotation is in the horizontal plane. Medial border At rest, the entire medial border may be prominent dorsally. During arm motion, the medial scapular (type II) border tilts dorsally off the thorax. The axis of the rotation is vertical in the frontal plane. Superior border At rest, the superior border of the scapula may be elevated and the scapula can also be anteriorly (type III) displaced. During arm motion, a shoulder shrug initiates movement without significant winging of the scapula occurring. The axis of this motion occurs in the sagittal plane. Symmetric At rest, the position of both scapula are relatively symmetrical, taking into account that the dominant scapulohumeral arm may be slightly lower. During arm motion, the scapulae rotate symmetrically upward such that the (type IV) inferior angles translate laterally away from the midline and the scapular medial border remains flush against the thoracic wall. The reverse occurs during lowering of the arm.