Open Reduction and Internal Fixation of a Neglected Posterior Pilon Variant Fracture in an Uncontrolled Diabetic with Peripheral
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Part Fracture Dislocation Due to Stress Concentration at Intramedullary Nail End 1Devendra Chouhan, 2Vishal Kumar, 3Manish Kundanmal Kothari, 4Mandeep S Dhillon
JPMER Devendra Chouhan et al 10.5005/jp-journals-10028-1142 CASE REPORT Dissociation of Shaft of Humerus from Head in Three- part Fracture Dislocation due to Stress Concentration at Intramedullary Nail End 1Devendra Chouhan, 2Vishal Kumar, 3Manish Kundanmal Kothari, 4Mandeep S Dhillon ABSTRACT authors best knowledge. We report the first such case A three-part fracture dislocation of the proximal humerus of three-part fracture dislocation involving the greater usually dissociates from the shaft at the level of the surgical tuberosity and proximal shaft of humerus with a 25 years neck or the anatomical neck. Dissociation from the shaft below old Rush nail in situ. this level has not reported in the literature before. Here we describe the injury of a middle aged patient with a three-part CASE REPORT fracture dislocation of the humerus with dissociation of the head from the shaft at the level of proximal shaft humerus with A 60-year-old male presented in the emergency depart- a 25 years old Rush nail in situ. The dislocated head was found ment with acute pain in right shoulder following road abutting the thoracic wall. This case report highlights the effect traffic accident 8 hours ago. He was travelling on a bike of stress concentration at intramedullary nail ends in the upper limb as well as the need for an extended approach when the when a car hit him from the side. He was violently thrown dislocated head appears close to the thoracic wall. off his motorcycle followed by fall on an outstretched hand. He had no other complaints. -
Metacarpal Fractures
METACARPAL FRACTURES BY LORYN P. WEINSTEIN, MD, AND DOUGLAS P. HANEL, MD The majority of metacarpal fractures are closed injuries amenable to conservative treatment with external immobilization and subsequent rehabilitation. Internal fixation is favored for unstable fracture patterns and patients who require early motion. Percutaneous pinning usually is successful for metacarpal neck fractures and comminuted head fractures. Shaft and base fractures can be treated with pinning or open reduction and internal fixation; the latter, being more rigid, allows early rehabilitation. External fixation has a limited yet defined role for metacarpal fractures with complex soft-tissue injury and/or segmental bone loss. The recent development of bioabsorbable implants holds promise for skeletal rigidity with minimal soft-tissue morbidity, but long-term in vivo data support- ing the use of these implants is not currently available. Copyright © 2002 by the American Society for Surgery of the Hand arly treatment of metacarpal fractures was lim- Surgical techniques rapidly expanded to include ret- ited to the only tools available: manipulation rograde fracture pinning, intramedullary pinning, and Eand casting. The discovery of percutaneous transfixion pinning. Many of the K-wires in use today fracture fixation near the turn of the century opened have the same diamond-shaped tip and sizing speci- up a new world of possibilities. It was 25 years after fications as the original design. Bennett’s original manuscript that Lambotte de- The first plate and screw set for the hand was scribed the first surgical stabilization of a basilar introduced in the late 1930s. By today’s standards, the thumb fracture by using a thin carpenter’s nail.1 By Hermann Metacarpal Bone Set was quite lean; it 1913, Lambotte had authored a fracture text with included 3 longitudinal plates of 2, 3, and 4 holes, a multiple examples of pinning, wiring, and plating of drill, screwdriver, and 9 screws.1 Improvements in hand fractures. -
Fracture Lower Extremity Part II
CONTENTS FEMUR SHAFT BOTH BONE SUBTROCHANTERIC TIBIAL PLAFON FRACTURE LOWER FRACTURE ANKLE EXTREMITIES: PART 2 FRACTURE FEMUR FOOT SUPRACONDYLAR FRACTURE FEMUR CALCANEUS PATELLA TALUS WORAWAT LIMTHONGKUL, M.D. 14 JAN 2013 TIBIA LISFRANC’S TIBIAL PLATEAU METATARSAL 1 2 SUBTROCHANTERIC FRACTURE FEMUR A PART OF FRACTURE OCCUR BETWEEN TIP OF LESSER TROCHANTER AND A POINT 5 SUBTROCHANTERIC CM DISTALLY CALCAR FEMORALE FRACTURE LARGE FORCES ARE NEEDED TO CAUSE FRACTURES IN 5 CM YOUNG & ADULT INJURY IS RELATIVELY TRIVIAL IN ELDERLY 2° CAUSE: OSTEOPOROSIS, OSTEOMALACIA, PAGET’S 3 4 SUBTROCHANTERIC FRACTURE FEMUR TREATMENT INITIAL FEMUR SHAFT TRACTION DEFINITE FRACTURE ORIF WITH INTRAMEDULLARY NAIL OR 95 DEGREE HIP- SCREW-PLATE 5 6 FEMUR FRACTURE FILM HIPS SEVERE PAIN, UNABLE TO BEAR WEIGHT 10% ASSOCIATE FEMORAL SUPRACONDYLAR NECK FRACTURE FEMUR FRACTURE TREATMENT: ORIF WITH IM NAIL OR P&S COMPLICATION: HEMORRHAGE, NEUROVASCULAR INJURY, FAT EMBOLI 7 8 SUPRACONDYLAR FEMUR FRACTURE SUPRACONDYLAR ZONE DIRECT VIOLENCE IS THE USUAL CAUSE PATELLA FRACTURE LOOK FOR INTRA- ARTICULAR INVOLVEMENT CHECK TIBIAL PULSE TREATMENT: ORIF WITH P&S 9 10 PATELLA FRACTURE PATELLA FRACTURE FUNCTION: LENGTHENING THE ANTERIOR LEVER ARM DDX: BIPATITE PATELLA AND INCREASING THE (SUPEROLATERAL) EFFICIENCY OF THE QUADRICEPS. TREATMENT: DIRECT VS INDIRECT NON-DISPLACE, INJURY INTACT EXTENSOR : CYLINDRICAL CAST TEST EXTENSOR MECHANISM DISPLACE, DISRUPT EXTENSOR: ORIF WITH VERTICAL FRACTURE: TBW MERCHANT VIEW 11 12 PATELLAR DISLOCATION ADOLESCENT FEMALE DISLOCATION AROUND USUALLY -
Proximal Humerus Fracture After Keyhole Biceps Tenodesis
A Case Report & Literature Review Proximal Humerus Fracture After Keyhole Biceps Tenodesis Stefanie N. Reiff, BA, Shane J. Nho, MD, MS, and Anthony A. Romeo, MD is the only one published in English. The patient pro- Abstract vided written informed consent for print and electronic A biceps tenodesis is a common surgical procedure that publication of this case report. is often carried out in conjunction with other surgical shoulder repairs to relieve biceps tendonitis. This case CASE REPORT presents a 50-year-old woman who suffered a humerus The patient, a 50-year-old woman, underwent left shoul- fracture following an open keyhole biceps tenodesis. The potential reasons for the fracture as well as a brief der revision arthroscopic subacromial decompression analysis of the technique itself are presented. To our and open biceps tenodesis. Past medical history was sig- knowledge, this is the first case report of a humerus frac- nificant for insulin-dependent diabetes mellitus (onset age, ture following keyhole biceps tenodesis in the English- 15 years) and hypothyroidism. Past surgical history was language literature. notable for left shoulder os acromiale with arthroscopic subacromial decompression performed 7 months before iceps tendonitis, a relatively common condition the revision surgery pertinent to this case. Tenodesis of the that affects the shoulder, causes pain over its biceps tendon was indicated on the basis of past surgical anterior aspect, near the bicipital groove and history, clinical examination in the office, and intraopera- -
Distal Tibial Fracture
Distal Tibial Fracture Sally Choi Date: 7/15/2020 RAD 4014 Dr. Manickam Kumaravel History 7/8/2020 • 20s F • MVC at highway speeds • Only reports R forearm pain, also presents with forehead hematoma, confused, and GCS 11 • Could not get reliable exam so pan-scanned • XR R ankle, elbow, foot, forearm, tibia fibula, and chest • CT chest/ab/pelvis, head/neck, and cervical spine • R Ankle Imaging: XR 7/8/20, CT 7/9/20 McGovern Medical School Differential Diagnosis for Ankle Injury • Fracture • Hemarthrosis • Ligament Injury • Soft Tissue Edema • Complex Regional Pain Syndrome McGovern Medical School XR R Ankle McGovern Medical School XR R Ankle Fibula Fibula Tibia Fibular notch Medial Malleolus Lateral Talus Lateral Malleolus Malleolus Navicular Calcaneus Calcaneus Cuneiforms Cuboid McGovern Medical School XR R Ankle McGovern Medical School XR R Ankle • Comminuted, impacted pilon fracture of distal right tibia • Definition: Pilon fracture is a type of distal tibial fracture involving the tibial plafond. McGovern Medical School XR R Ankle McGovern Medical School XR R Ankle • 3 mm cortical offset at the posterior 3rd of the articular surface of the tibial plafond McGovern Medical School XR R Ankle • Convex soft tissue swelling at the anterior medial aspect of right ankle McGovern Medical School CT R Ankle w/o Contrast (s/p ex fix) – Coronal Anterior → → → Posterior McGovern Medical School CT R Ankle w/o Contrast (s/p ex fix) – Coronal Anterior → → → Posterior McGovern Medical School CT R Ankle w/o Contrast (s/p ex fix) – Sagittal Lateral → → → Medial McGovern Medical School CT R Ankle w/o Contrast (s/p ex fix) – Sagittal Lateral → → → Medial McGovern Medical School Key imaging findings • Comminuted distal tibial fracture with coronally oriented fracture component, extending into the medial malleolus, with focal zone of depression comprising 30% of the tibial plafond with maximal depression of 1 cm. -
Org Tibia (Shinbone) Shaft Fractures
.org Tibia (Shinbone) Shaf Fractures Page ( 1 ) The tibia, or shinbone, is the most common fractured long bone in your body. The long bones include the femur, humerus, tibia, and fi bula. A tibial shaf fracture occurs along the length of the bone, below the knee and above the ankle. Because it typically takes a major force to break a long bone, other injuries of en occur with these types of fractures. Anatomy The lower leg is made up of two bones: the tibia and fi bula. The tibia is the larger of the two bones. It supports most of your weight and is an important part of both the knee joint and ankle joint. The tibia is the larger bone in your lower leg. Tibial shaf fractures occur Types of Tibial Shaf Fractures along the length of the bone. The tibia can break in several ways. The severity of the fracture usually depends on the amount of force that caused the break. The fi bula is of en broken as well. Common types of tibial fractures include: Stable fracture: This type of fracture is barely out of place. The broken ends of the bones basically line up correctly and are aligned. In a stable fracture, the bones usually stay in place during healing. Displaced fracture: When a bone breaks and is displaced, the broken ends are separated and do not line up. These types of fractures of en require surgery to put the pieces back together. Transverse fracture: This type of fracture has a horizontal fracture line. This fracture can be unstable, especially if the fi bula is also broken. -
Common Fractures and Dislocations of the Hand
CME Common Fractures and Dislocations of the Hand Neil F. Jones, M.D. Learning Objectives: After reading this article, the participant should be able Jesse B. Jupiter, M.D. to: 1. Describe the concept of early protected movement with Kirschner-wired Donald H. Lalonde, M.D. finger fractures to the hand therapist. 2. Choose the most appropriate method Orange, Calif.; Boston, Mass.; and of fracture fixation to achieve the goal of a full range of motion. 3. Describe the Saint John, New Brunswick, Canada methods of treatment available for the most common fractures and dislocations of the hand. Background: The main goal of treatment of hand and finger fractures and dislocations is to attain a full range of wrist and nonscissoring finger motion after the treatment is accomplished. This CME article consists of literature review, illustrations, movies, and an online CME examination to bring the participant recent available information on the topic. Methods: The authors reviewed literature regarding the most current treat- ment strategies for common hand and finger fractures and dislocations. Films were created to illustrate operative and rehabilitation methods used to treat these problems. A series of multiple-choice questions, answers, discussions, and references were written and are provided online so that the participant can receive the full benefit of this review. Results: Many treatment options are available, from buddy and Coban taping to closed reduction with immobilization; percutaneous pins or screws; and open reduction with pins, screws, or plates. Knowledge of all available options is important because all can be used to achieve the goal of treatment in the shortest time possible. -
Pilon Fractures a Review and Update
The Northern Ohio Foot and Ankle Journal Official Publication of the NOFA Foundation Pilon Fractures: A Review and Update by James Connors DPM1, Michael Coyer DPM1, Lauren Kishman DPM2, Frank Luckino III DPM3, and Mark Hardy DPM FACFAS4 The Northern Ohio Foot and Ankle Journal 1 (4): 1-6 Abstract: Pilon fractures are complex injuries due to many factors. The distal tibia lacks any muscle origin which makes it vulnerable to comminuted fractures. The soft tissue coverage is minimal at this level which leads to a higher propensity for open injuries. Conservative care is rarely indicated. Surgical planning must include advanced imaging to define the fracture pattern. Staging the injury to allow for optimization of the soft tissue envelop through the use of external fixation has many advantages compared to early open reduction internal fixation. The die punch fragment lacks any ligamentous attachments and possess a difficult task for anatomic reduction. The viability of the soft tissue, the amount of comminution, as well as the impaction force and rotation all must be considered for proper surgical planning. Key words: pilon fracture; tibial plafond; die punch; constant fragment Accepted: April, 2015 Published: April, 2015 This is an Open Access article distributed under the terms of the Creative Commons Attribution License. It permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. ©The Northern Ohio Foot and Ankle Foundation Journal. (www.nofafoundation.org) 2014. All rights reserved. ilon fractures are defined as intra-articular The plafond exhibits a concave orientation in a sagittal P fractures of the distal tibia with extension into and coronary direction and composes the majority of the ankle joint. -
Orthopaedic Trauma Pilon Fractures
NOR200238.qxp 9/12/11 12:39 PM Page 293 Orthopaedic Trauma Pilon Fractures Pamela L. Horn ▼ Matthew C. Price ▼ Scott E. Van Aman Pilon or plafond fractures occur in the distal portion of the anteriorly for stability especially while bearing weight tibia. These fractures are commonly the result of high-energy (Orthopaedia Main, 2007; see Figure 1). trauma and are associated with increased morbidity due to Ligaments that support the distal tibia are the their complicated nature and location. Thorough assess- tibiofibular ligament, including the anterior, posterior, ment, including soft tissue involvement and immediate joint and transverse portions; the interosseous ligament; and reduction, are the cornerstones of care prior to surgical the deltoid ligament that is divided into superficial and deep portions (Orthopaedia Main, 2007; see Figure 2). treatment determination. This article will provide an overview of anatomy, mechanism of injury, physical assess- MECHANISM OF INJURY ment, presentation of fracture types, imaging studies, and treatments. Issues affecting surgical decision-making, fac- Approximately 7%–10% of all tibia fractures present as pilon fractures (Egol, Koval, & Zuckerman, 2010) and tors affecting morbidity, complications, nursing implications, comprise less than 1% of all lower extremity fractures and rehabilitation will also be discussed. (Sands et al., 1998). Most pilon fractures are a result of very high energy trauma such as a fall from a significant height, motor vehicle collisions, motorcycle accidents, and indus- ilon or plafond fractures are the result of high- trial mishaps (Barei, 2010; Egol et al., 2010). With the ad- energy trauma due to rotational or axial-loading vent of improved life-saving automotive restraints, there forces (Barei & Nork, 2008). -
Pronation-External Rotation Fractures
CHAPTER 24 PRONATION-EXTERNAL ROTATION FRACTURES George S. Gumann, DPM INTRODUCTION needs to be addressed, or reduction of the fibular fracture fails to reduce the ankle mortise. Pronation-external rotation injuries represent the second If the medial malleolus is fractured, it is exposed and the most common pattern associated with ankle fractures. They medial joint space inspected for osteochondral fractures. It is are consistent with the Danis-Weber Type C fracture. 1,2 then anatomically reduced, and can be fixated employing The stages 2,3 of pronation-external rotation fractures are: several techniques. 6-8 If the fracture is large, then two 4.0 Stage I (rupture of the deltoid ligament or fracture of the mm partially-threaded cancellous screws are placed. They medial malleolus); stage II (rupture of the anterior inferior can be either cannulated or non-cannulated. Another tibiofibular [anterior syndesmotic] ligament and the fixation technique if the fracture is osteoporotic, smaller in interosseous membrane); stage III (spiral fracture of the size, comminuted, or if the screws fail to purchase is tension fibula above the level of the syndesmosis); and stage IV band wire. The wire may be placed through a drill hole in (rupture of the posterior inferior tibiofibular [posterior the tibial metaphysis but is more commonly placed over a syndesmotic] ligament or fracture of the posterior malleolus). unicortical hanging screw. If the tibia is osteoporotic, then make sure the hanging screw engages both the medial and STAGE I lateral cortex for increased stability. Two other options for fixation of a smaller sized medial malleolus fracture are Stage I represents injury to the medial structures of the utilizing 1 cancellous screw with adjacent Kirschner-wire or ankle. -
Pilon Fractures of the AnkleOrthoinfo AAOS
4/20/2016 Pilon Fractures of the AnkleOrthoInfo AAOS Pilon Fractures of the Ankle This article addresses pilon fractures—a specific type of fracture that occurs in the lower leg near the ankle. To find indepth information on ankle fractures, please read Ankle Fractures (Broken Ankle) (topic.cfm? topic=A00391). A pilon fracture is a type of break that occurs at the bottom of the tibia (shinbone) and involves the weight bearing surface of the ankle joint. With this type of injury, the other bone in the lower leg, the fibula, is frequently broken as well. A pilon fracture typically occurs as the result of a highenergy event, such as a car collision or fall from height. Pilon is the French word for "pestle"—an instrument used for crushing or pounding. In many pilon fractures, the bone may be crushed or split into several pieces due to the highenergy impact that caused the injury. In most cases, surgery is needed to restore the damaged bone to its normal position. Because of the energy required to cause a pilon fracture, patients may have other injuries that require treatment as well. Anatomy The two bones of the lower leg are the: Tibia—shinbone Fibula—smaller bone in the lower leg The talus is a small foot bone that works as a hinge between the tibia and fibula. Together, these three bones—tibia, fibula, and talus—make up the ankle joint. Normal foot anatomy. Description Pilon fractures vary. The tibia may break in one place or shatter into multiple pieces. -
Child Protection Evidence Systematic Review on Fractures
Child Protection Evidence Systematic review on Fractures Published: September 2020 The Royal College of Paediatrics and Child Health (RCPCH) is a registered charity in England and Wales (1057744) and in Scotland (SC038299) Original reviews and content © Cardiff University, funded by NSPCC Updates and new material by RCPCH September 2020 While the format of each review has been revised to fit the style of the College and amalgamated into a comprehensive document, the content remains unchanged until reviewed and new evidence is identified and added to the evidence-base. Updated content will be indicated on individual review 1 pages. Child Protection Evidence – Systematic review on Fractures RCPCH Table of contents Summary ................................................................................................................................................. 4 Evidence summary ................................................................................................................................ 4 Background ............................................................................................................................................. 5 Methodology .......................................................................................................................................... 5 Findings of clinical question 1 .............................................................................................................. 6 Which fractures are indicative of abuse? ..........................................................................................