Radiohamate Impingement After Proximal Row Carpectomy ‘Radiohamate Impingement PRC’
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Upper Limb Fractures in Rugby in Huddersfield 1986- 1 990
Br J Sp Med 1991; 25(3) From the Clinic Br J Sports Med: first published as 10.1136/bjsm.25.3.139 on 1 September 1991. Downloaded from Upper limb fractures in rugby in Huddersfield 1986- 1 990 K.S. Eyres FRCS', A. Abdel-Salam FRCS2 and J. Cleary FRCS3 Research Registrar, Department of Human Metabolism and Clinical Biochemistry, University of Sheffield, Sheffield, UK 2 Orthopaedic Registrar, Huddersfield Royal Infirmary, Huddersfield, UK 3 Orthopaedic Consultant, Huddersfield Royal Infirmary, Huddersfield, UK Most injuries sustained by rugby players affect the soft Case 1 tissues, and fracture is relatively uncommon. Whereas the lower limb is most affected in footballers, the upper limb A 24-year-old full-back fractured his left clavicle in a tends to be injured in rugby players. Thirty consecutive scrummage in 1988 (Figure 1). Six months later, he fractures and ten dislocations affecting the upper limb, sustained a direct blow to the left shoulder. Radio- sustained by 35 rugby players, are reported. graphs showed a fracture to the greater tuberosity of the left humerus (Figure 2). He was treated with a Keywords: Rugby injury, hamate fracture, sports injury collar and cuff and was able to return to matchplay after 2 months. Nine months later he fell onto his left hand after a tackle. Radiographs showed a sagittal Most injuries sustained in rugby matches are to the fracture of the body of the hamate and a fracture of soft tissues. Fractures are relatively uncommon, the base of the fourth metacarpal (Figure 3). He was estimated to account for only 4% of injuries in adult treated conservatively with plaster immobilization, matches and for 5% of injuries in school matches'. -
Trapezius Origin: Occipital Bone, Ligamentum Nuchae & Spinous Processes of Thoracic Vertebrae Insertion: Clavicle and Scapul
Origin: occipital bone, ligamentum nuchae & spinous processes of thoracic vertebrae Insertion: clavicle and scapula (acromion Trapezius and scapular spine) Action: elevate, retract, depress, or rotate scapula upward and/or elevate clavicle; extend neck Origin: spinous process of vertebrae C7-T1 Rhomboideus Insertion: vertebral border of scapula Minor Action: adducts & performs downward rotation of scapula Origin: spinous process of superior thoracic vertebrae Rhomboideus Insertion: vertebral border of scapula from Major spine to inferior angle Action: adducts and downward rotation of scapula Origin: transverse precesses of C1-C4 vertebrae Levator Scapulae Insertion: vertebral border of scapula near superior angle Action: elevates scapula Origin: anterior and superior margins of ribs 1-8 or 1-9 Insertion: anterior surface of vertebral Serratus Anterior border of scapula Action: protracts shoulder: rotates scapula so glenoid cavity moves upward rotation Origin: anterior surfaces and superior margins of ribs 3-5 Insertion: coracoid process of scapula Pectoralis Minor Action: depresses & protracts shoulder, rotates scapula (glenoid cavity rotates downward), elevates ribs Origin: supraspinous fossa of scapula Supraspinatus Insertion: greater tuberacle of humerus Action: abduction at the shoulder Origin: infraspinous fossa of scapula Infraspinatus Insertion: greater tubercle of humerus Action: lateral rotation at shoulder Origin: clavicle and scapula (acromion and adjacent scapular spine) Insertion: deltoid tuberosity of humerus Deltoid Action: -
The Muscles That Act on the Upper Limb Fall Into Four Groups
MUSCLES OF THE APPENDICULAR SKELETON UPPER LIMB The muscles that act on the upper limb fall into four groups: those that stabilize the pectoral girdle, those that move the arm, those that move the forearm, and those that move the wrist, hand, and fingers. Muscles Stabilizing Pectoral Girdle (Marieb / Hoehn – Chapter 10; Pgs. 346 – 349; Figure 1) MUSCLE: ORIGIN: INSERTION: INNERVATION: ACTION: ANTERIOR THORAX: anterior surface coracoid process protracts & depresses Pectoralis minor* pectoral nerves of ribs 3 – 5 of scapula scapula medial border rotates scapula Serratus anterior* ribs 1 – 8 long thoracic nerve of scapula laterally inferior surface stabilizes / depresses Subclavius* rib 1 --------------- of clavicle pectoral girdle POSTERIOR THORAX: occipital bone / acromion / spine of stabilizes / elevates / accessory nerve Trapezius* spinous processes scapula; lateral third retracts / rotates (cranial nerve XI) of C7 – T12 of clavicle scapula transverse processes upper medial border elevates / adducts Levator scapulae* dorsal scapular nerve of C1 – C4 of scapula scapula Rhomboids* spinous processes medial border adducts / rotates dorsal scapular nerve (major / minor) of C7 – T5 of scapula scapula * Need to be familiar with on both ADAM and the human cadaver Figure 1: Muscles stabilizing pectoral girdle, posterior and anterior views 2 BI 334 – Advanced Human Anatomy and Physiology Western Oregon University Muscles Moving Arm (Marieb / Hoehn – Chapter 10; Pgs. 350 – 352; Figure 2) MUSCLE: ORIGIN: INSERTION: INNERVATION: ACTION: intertubercular -
The Structure and Movement of Clarinet Playing D.M.A
The Structure and Movement of Clarinet Playing D.M.A. DOCUMENT Presented in Partial Fulfilment of the Requirements for the Degree Doctor of Musical Arts in the Graduate School of The Ohio State University By Sheri Lynn Rolf, M.D. Graduate Program in Music The Ohio State University 2018 D.M.A. Document Committee: Dr. Caroline A. Hartig, Chair Dr. David Hedgecoth Professor Katherine Borst Jones Dr. Scott McCoy Copyrighted by Sheri Lynn Rolf, M.D. 2018 Abstract The clarinet is a complex instrument that blends wood, metal, and air to create some of the world’s most beautiful sounds. Its most intricate component, however, is the human who is playing it. While the clarinet has 24 tone holes and 17 or 18 keys, the human body has 205 bones, around 700 muscles, and nearly 45 miles of nerves. A seemingly endless number of exercises and etudes are available to improve technique, but almost no one comments on how to best use the body in order to utilize these studies to maximum effect while preventing injury. The purpose of this study is to elucidate the interactions of the clarinet with the body of the person playing it. Emphasis will be placed upon the musculoskeletal system, recognizing that playing the clarinet is an activity that ultimately involves the entire body. Aspects of the skeletal system as they relate to playing the clarinet will be described, beginning with the axial skeleton. The extremities and their musculoskeletal relationships to the clarinet will then be discussed. The muscles responsible for the fine coordinated movements required for successful performance on the clarinet will be described. -
Fractures of Hamate: a Clinical Overview
MUSCULOSKELETAL SURGERY (2019) 103:15–21 https://doi.org/10.1007/s12306-018-0543-y REVIEW Fractures of hamate: a clinical overview G. Mouzopoulos1 · C. Vlachos1 · L. Karantzalis1 · K. Vlachos1 Received: 28 June 2017 / Accepted: 20 May 2018 / Published online: 29 May 2018 © Istituto Ortopedico Rizzoli 2018 Abstract Hamate fractures are exceedingly rare clinical entities. However, the diagnosis and treatment of these injuries are often delayed and can severely handicap the performance of afected laborers or athletes. This review focuses on fractures of the hamate and provides an update on the current consensus as to mechanism, diagnosis, management, and complications after such injuries. Keywords Hamate · Hook · Fracture Epidemiology the hook of the hamate [2]. If the grip is relaxed or control is lost, the fracture occurs at the end of a poor swing, as Fractures of the hamate usually occur through the hook centrifugal force is transmitted through the handle of the or body of the bone [1]. Type I fractures involve the hook racquet against the hook [7]. In golfers or baseball players, of the hamate and further are subdivided into three sub- a dubbed shot or a checked swing will fracture the hamulus types involving: base, waist, and avulsion (tip). Fractures because the butt of the club or bat will strike the hook. It has located at the base and proximal third (76%) of the hook also been described in polo and ice hockey [8]. are presented more frequently than fractures located at the Fall on an outstretched hand causing sudden forcible mid-third (13%) or the distal third (11%). -
Shoulder Shoulder
SHOULDER SHOULDER ⦿ Connects arm to thorax ⦿ 3 joints ◼ Glenohumeral joint ◼ Acromioclavicular joint ◼ Sternoclavicular joint ⦿ https://www.youtube.com/watch?v=rRIz6oO A0Vs ⦿ Functional Areas ◼ scapulothoracic ◼ scapulohumeral SHOULDER MOVEMENTS ⦿ Global Shoulder ⦿ Arm (Shoulder Movement Joint) ◼ Elevation ◼ Flexion ◼ Depression ◼ Extension ◼ Abduction ◼ Abduction ◼ Adduction ◼ Adduction ◼ Medial Rotation ◼ Medial Rotation ◼ Lateral Rotation ◼ Lateral Rotation SHOULDER MOVEMENTS ⦿ Movement of shoulder can affect spine and rib cage ◼ Flexion of arm Extension of spine ◼ Extension of arm Flexion of spine ◼ Adduction of arm Ipsilateral sidebending of spine ◼ Abduction of arm Contralateral sidebending of spine ◼ Medial rotation of arm Rotation of spine ◼ Lateral rotation of arm Rotation of spine SHOULDER GIRDLE ⦿ Scapulae ⦿ Clavicles ⦿ Sternum ⦿ Provides mobile base for movement of arms CLAVICLE ⦿ Collarbone ⦿ Elongated S shaped bone ⦿ Articulates with Sternum through Manubrium ⦿ Articulates with Scapula through Acromion STERNOCLAVICULAR JOINT STERNOCLAVICULAR JOINT ⦿ Saddle Joint ◼ Between Manubrium and Clavicle ⦿ Movement ◼ Flexion - move forward ◼ Extension - move backward ◼ Elevation - move upward ◼ Depression - move downward ◼ Rotation ⦿ Usually movement happens with scapula Scapula Scapula ● Flat triangular bone ● 3 borders ○ Superior, Medial, Lateral ● 3 angles ○ Superior, Inferior, Lateral ● Processes and Spine ○ Acromion Process, Coracoid Process, Spine of Scapula ● Fossa ○ Supraspinous, Infraspinous, Subscapularis, Glenoid SCAPULA -
Golf Injuries to the Hand, Wrist Or Elbow
Golf Injuries to the Hand, Wrist or Elbow Hand, wrist and elbow injuries are common for golfers of all skill levels. The golf swing is a complex, coordinated series of motions. Injuries Figure 1. Hook of the hamate as it grips a golf club can result from poor technique, overuse or a single direct blow, like hitting a tree root. Proper warm up and stretching is important to decrease the chance of injury while golfing. Gradually increasing the length and intensity of play as the season progresses can help avoid overuse injuries. Conditioning and core muscle strengthening can improve swing mechanics. Instruction with a teaching professional will refine your technique and increase your enjoyment of the game injury free. Types of Golf Injuries Injuries can include tendonitis, sprains or fractures (broken bones). Sprains or ligament injuries to the wrist most often involve pain and popping in the wrist. Figure 2. Small bones of the wrist Wrist tendonitis typically occurs in the leading hand (left hand for a right handed player). Medial Epicondylitis, also known as “golfer’s elbow,” is a painful tendonitis on the inner aspect of the elbow, where the muscles that bend the wrist and fingers attach (Figure 1). Tendonitis on the outer aspect of the elbow (Lateral Epicondylitis) is more common. Hamate bone fractures occur when the club strikes the ground, forcing the handle against the bony hook (Figures 2, 3 and 4). The hook part of the bone can break, causing pain in the heel of the hand. Figure 3. CT scan showing fracture of hook of hamate Damaged blood vessels can happen from the club handle repeatedly at its base striking the palm. -
De Quervain's Release Standard of Care PT
BRIGHAM & WOMEN’S HOSPITAL Department of Rehabilitation Services Physical Therapy Standard of Care: de Quervain’s Syndrome: Surgical Management Physical Therapy management of the patient who had a release of the first extensor compartment. Case Type/Diagnosis: (diagnosis specific, impairment/dysfunction specific) 11 Since the first description of “washerwoman’s sprain” tenosynovitis of the first dorsal compartment has become a commonly recognized inflammatory disorder. The most radial of the extensor compartments on the dorsum of the wrist is occupied by the tendons of the extensor pollicis brevis and abductor pollicis longus. The tendons are enveloped in an osseofibrous canal lined by synovium, which, when subjected to excessive or repetitive mechanical stresses, responds in a characteristic fashion distinguished by pain, swelling, and limitation of motion of the thumb. In 1895,Fritz de Quervain, a Swiss surgeon, 1 was first credited with the recognition of this disease and so it bore his name. More accurately, Tillaux 2 and Gray 3 referred to this disorder before de Quervain. Anatomy: Twenty-four extrinsic tendons cross the wrist and provide power and dexterity in the hand. Each tendon passes through a series of tight fibrous -osseous canals designed to optimize the balance between motion and force production by maintaining the tendon in close approximation to the joint or joints it controls. There are six separate compartments under the dorsal carpal ligament each lined with a separate synovial sheath membrane. The first one is over the radial styloid and it contains the abductor pollicis longus and the extensor pollicis brevis tendons. These tendons pass through an unyielding osteoligamentous tunnel formed by a shallow groove in the radial styloid process and a tough overlying roof composed by the transverse fibers of the dorsal ligament. -
Hughston Health Alert US POSTAGE PAID the Hughston Foundation, Inc
HughstonHughston HealthHealth AlertAlert 6262 Veterans Parkway, PO Box 9517, Columbus, GA 31908-9517 • www.hughston.com/hha VOLUME 29, NUMBER 3 - SUMMER 2017 Fig 1. Hamate fracture caused by the force of a golf club swing Hamate Inside... • What is Damage Control Orthopaedics? • Pedometers: An incentive to walk or just another gadget? • Reducing the Spread of Herpes in the Locker Room • MD or DO: What's the difference? • Hughston Clinic Capitate Fig 2. Hand and wrist Trapezoid Hook of anatomy and Hamate Fractures Hamate cross section Hamate fractures are uncommon injuries, representing of the wrist Hamate only 2% of all wrist fractures. The break is often sustained Pisiform by athletes who play sports where some type of object is Trapezium swung or wielded, such as a stick or club that causes Triquetral Scaphoid a direct blow to the hamate bone (Fig. 1). A golfer, Lunate for example, can fracture the hamate when hitting the ground during a golf swing. Golfers are not the Trapezium Capitate Hook of only athletes at risk, however, baseball, hockey, Hamate racquetball, and tennis players are also known to injure the hamate bone. It rarely occurs, but a fall onto the palm can result in a hamate fracture, as well. Hand anatomy The Hughston Foundation, One of 8 carpal bones, the hamate is found in the hand, Inc. ©2017 close to the wrist and below the ring and small finger (Fig. 2). The bone is triangular shaped and has a small hook-like bony projection on the palm side called the hook of the Trapezoid Hamate hamate. -
Fracture of the Hamate with Interposition of the Base of 5Th
Journal of Case Reports and Studies Volume 5 | Issue 1 ISSN: 2348-9820 Case Report Open Access Fracture of the Hamate with Interposition of the Base of 5th Metacarpal, a Frequently Missed Injury Dabboussi NA, Fakih RR, Al husari H and Abtar HK* Department of Surgery, Makassed General Hospital, Beirut, Lebanon *Corresponding author: Abtar HK, Makassed General Hospital, P.O. Box: 11-6301 Riad EI-Solh, 11072210, Beirut, Lebanon, Tel: +961 70 858658, +961 1858658, E-mail: [email protected] Citation: Dabboussi NA, Fakih RR, Al husari H, Abtar HK (2017) Fracture of the Hamate with Interposition of the Base of 5th Metacarpal, a Frequently Missed Injury. J Case Rep Stud 5(1): 104. doi: 10.15744/2348- 9820.5.104 Received Date: December 26, 2016 Accepted Date: February 25, 2017 Published Date: February 28, 2017 Abstract We report a case of hamate fracture in the coronal plane with interposition of the base of 5th metacarpal bone. This injury is frequently missed and may results in increasing rate of morbidity and mal-union. In this article, the approach to this type of injuries, the diagnostic modalities, and the management will be discussed with review of the literature. Keywords: Hamate Bone; Fracture-Dislocation; Missed Injury List of Abbreviations: Three Dimensional Computed Tomography: 3D CT Scan Introduction Hamate fracture represents a small percentage of all carpal bone fractures [1], it is rare to the point that the incidence of its subtypes was not established. Hamate fractures with dislocation of fifth metacarpal are frequently missed by conventional x-rays, they need special views to be diagnosed, and the fracture architecture is best seen on three dimensional computed tomography (3D CT scan) [2]. -
Fracture of the Body's Hamate Bone
THIEME 126 Case Report | Caso Cínico Fracture of the Body’sHamateBone:Open Reduction Internal Fixation by Double Approach—ACaseReport Fractura del cuerpo del ganchoso: Reducción abierta y fijación interna mediante doble abordaje—Apropósito de un caso. Jorge Salvador Marín1 Antonia Brotons Baile1 Nuria Cardona Vives1 Jaime Francisco Vargas Prieto1 José Manuel Pérez Alba1 José Fernando Martínez López1 1 Orthopedic Surgery and Trauma Service, Hospital Universitari de Address for correspondence Jorge Salvador Marín, MD, MSc, Hospital Sant Joan d’Alacant, Alicante, Spain Universitari de Sant Joan d’Alacant Ctra. Nnal. 332, Alacant-Valencia, s/n, 03550 Sant Joan d’Alacant, Alicante, Spain Rev Iberam Cir Mano 2018;46:126–130. (e-mail: [email protected]). Abstract Hamate fractures are rare. Their treatment depends on the displacement and type of fracture. We present the case and surgical technique of a 33-year-old male patient, who is a manual worker, with a displaced fracture of the body of the hamate bone associated with dislocation of the fourth and fifth metacarpal (MC) bones. The patient was Keywords operated on with a double palmar and dorsal approach directly over the hamate and ► carpal fracture the body hook, respectively, which was performed to improve the control reduction ► carpometacarpal and avoid damaging the neighboring vascular and nerve structures. The open dislocation reduction internal fixation (ORIF) was performed by inserting mini-screws in a dorsal ► double dorsal and to palmar direction. Later, the dislocations were reduced and fixed with Kirschner wires palmar approach between the fourth and fifth MC bases, and between the fourth MC base and the ► hamate fracture capitate bone. -
Homologies of the Carpal Bones in Flying Squirrels (Pteromyinae): a Review
Mammal Study 26: 61-68 (2001) •. R . © the Mammalogical Society of Japan ' ,u" •XCTrc" Homologies of the carpal bones in flying squirrels (Pteromyinae): a review Richard W. Thorington, Jr.1 and Brian J. Stafford2 1 ^Department of Vertebrate Zoology, National Museum of Natural History, Smithsonian Institution, Washington, DC 20560-0108 USA 2Department of Anatomy, Howard University College of Medicine, 520 W Street, N.W., Washington, DC 20059 USA Abstract. The homologies of the carpal bones of flying squirrels, presented by Oshida et al. (2000a, b), are reviewed, together with the evidence supporting traditional homology assessments. Evidence for the homology of the styliform cartilage of flying squirrels with the hypothenar cartilage of other squirrels is also reviewed. Development, articulations, topography, and muscle insertions favor both the traditional hypothesis of homology assess- ments of the carpal bones and also the hypothesis that the styliform cartilage is homologous with the hypothenar cartilage. Key words: carpal homologies, flying squirrels, Pteromyinae, styliform cartilage. In two papers, Oshida et al. (2000a, b) described the styliform cartilage of flying squirrels and suggested that it is homologous with the pisiform bone of other mammals. This is a revolutionary interpretation of the homology of the carpus. It contrasts with the hypothe- sis of Thorington et al. (1998) that the styliform cartilage of flying squirrels is homologous with the hypothenar cartilage of other squirrels. In addition, the homology assessments of Oshida et al. (2000a, b) for all the proximal carpal bones differ fundamentally from the more traditional hypothesis followed by many authors, e.g. Hill (1937), Bryant (1945), Holmgren (1952), Grasse and Dekeyser (1955), Thorington (1984), Thorington et al.