BSUH VFC Initial Management Guidelines Dec 2014

Total Page:16

File Type:pdf, Size:1020Kb

BSUH VFC Initial Management Guidelines Dec 2014 BSUH VFC initial management guidelines Dec 2014 Contents Page Elbow injuries: Radial head / Radial neck fractures 3 Elbow dislocations 3 Shoulder Injuries: Shoulder dislocation 4 ACJ dislocation 4 Proximal Humerus fractures 5 Greater Tuberosity fractures 5 Midshaft Humerus 6 Mid-shaft clavicle fractures 7 Lateral 1/3 Clavicle fractures 8 Medial 1/3 clavicle fractures 9 Soft tissue injury shoulder 11 Calcific tendinitis 11 Common lower limb injuries Foot injuries: 5th Metatarsal fracture 12 Stress fractures 12 5th Midshaft fractures 12 Single Metatarsal fractures 12 Single phalanx fractures 12 Multiple Metatarsal fractures 13 Mid-foot fractures 13 Calcaneal fractures 14 Ankle injuries: Page 1 of 18 Weber A ankle fractures 15 Weber B 15 Weber C 15 Medial malleolus / and Posterior malleolus fractures 15 Bi-tri malleolus fractures 16 Soft tissue ankle injury / Avulsion lateral malleolus 16 TA ruptures 16 Knee injuries Locked Knee 17 Soft tissue knee injury 17 Patella Dislocation 17 Patella fractures 17 Possible Tumours 18 Page 2 of 18 Upper Limb Injuries Elbow injuries Radial head / neck fractures Mason 1 head / borderline Mason 1-2 protocol BAS for comfort only 2/52 and early gentle ROM DC VFC. Patient to contact VFC at 3/52 post injury if struggling to regain ROM Mason 2 >2mm articular step off discuss case with consultant on hot week likely conservative management if unsure d/w upper limb consultants opinion for 2/52 repeat x-ray and review in VFC Mason 3 head # or >30degrees neck angulation = Urgent Ref to UL clinic (LL or LT) for discussion with regards to surgical management. Elbow Dislocations No fractures => immobilisation in backslab from A&E and urgent UL clinic (7-10days) for removal of cast and Ax stability of elbow (LL/LT/CH/EG) Fractures o Un-displaced . Immobilisation in backslab from A&E and urgent UL clinic (7-10 days) as above. o Displaced . ? TCI for fixation put on Bluspeir for discussion in morning meeting and inform patient possible CT required pre surgery. Page 3 of 18 Shoulder injuries GHJ dislocation Primary: Young dislocations < 55: Conservative management with sling for 3/52 and initial exercises as per protocol and DC VFC to self-management Older dislocations 55+ (cuff tear unless proven otherwise) No fracture o Polysling for comfort + pendulum scapula setting o UL clinic at 3/52 post injury for Ax RC physio to be arranged from this clinic as required GT fractures (post reduction film) . Un-displaced Polysling for comfort + elbow wrist and hand and scapula setting UL clinic at 3/52 post injury Ax RC and if x-ray unchanged physio to be arranged from this clinic as required. >5mm displaced ? TCI for fixation put on Bluspeir for discussion in morning meeting and inform patient possible CT required pre surgery. Recurrent: Disuses with patient if under a UL consultant or wishes to consider surgical management or repeat conservative management. If surgical ref to UL clinic Cameron Hatrick or Physio as requested. ACJ dislocation Rockwood Grade 1 and 2: Conservative protocol with BAS for comfort up to 3/52 with early pendulum and scapula setting and DC VFC Rockwood Grade 3: Conservative protocol and refer to UL clinic for 3/52 post injury physio to be arranged from clinic as appropriate Rockwood Grade 4-6 : Discuss with UL consultants if Mon/Tuesday/ alternative Thursdays or put on Bluespeir for discussion on trauma ward round? TCI or further imaging if required. Page 4 of 18 Proximal humerus fractures Most likely for conservative management but to consider patient factors and clinical factors on x-ray, sometimes a CT can be used to further examine the extent of the injury: Patient factors: Consider patient Age, Occupation, Handedness, Other PMHx Predictors or poor outcome and relative indications for surgery: <7mm medial metaphyseal hinge (increased risk AVN) 3 or 4 part fractures (Neer ) Varus displacement >40 degs posterior angulation (apex anterior) If considering surgical management: Try to get imaged reviewed by Enis Guryel or Cameron Hatrick or if unable put patient on bluespeir for surgical consideration. Conservative management: Collar and cuff / Polysling depending on comfort Proximal Humerus protocol: hand, elbow and pendulum UL clinic at 3/52 post injury Greater Tuberosity fractures Un-displaced Conservative management: Collar and cuff / Polysling depending on comfort Un-displaced GT protocol: hand, elbow and pendulum (avoid active abduction 6/52) Referral to physiotherapy for 3/52 post injury No routine FU unless physio or patient contacts with difficulties Minimally displaced (<5mm displacement with no superior translation) Conservative management: Collar and cuff / Polysling depending on comfort Un-displaced GT protocol: hand, elbow and pendulum (avoid active abduction 6/52) UL clinic at 3/52 with repeat AP and axially views on arrival ensure no shift Referral to Physio from clinic as appropriate Displaced ( >5mm displacement with translation of GT) For consideration of surgical management: Try to get imaged reviewed by Enis Guryel or Cameron Hatrick or if unable put patient on bluespeir for surgical consideration. Consider patient factors and clinical factors on x-ray, sometimes a CT can be used to further examine the extent of the injury: Patient factors: Consider patient Age, Occupation, Handedness, Other PMHx Predictors or poor outcome and relative indications for surgery: Superior translation of the GT Page 5 of 18 Posterior translation of the GT Midshaft Humerus Conservative management indicated in vast majority: criteria for acceptable alignment include: < 20° anterior angulation < 30° varus/valgus angulation < 3 cm shortening Conservative Mx: Collar and cuff 3/52 + Humeral Brace if correct position Clavicle fracture protocol: hand, elbow and pendulum UL clinic at 3/52 with repeat AP and incline views Referral to Physio from clinic as appropriate Considerations for surgical management IM Nail or ORIF Patient age Angulation as above Sever soft tissue injury or bone loss Vascular injury requiring repair BPL or PN injury Pathological fracture If considering surgical management: Try to get imaged reviewed by Enis Guryel or Cameron Hatrick or if unable put patient on bluespeir for surgical consideration. Page 6 of 18 Clavicle injuries Mid shaft clavicle fractures (80-85% prevalence) Conservatively managed if: No neurovascular compromise No tenting of the skin and subsequent skin threat <2cm displacement measured from inferior cortex to inferior cortex# Low demand patient Conservative Treatment: Collar and cuff / Polysling depending on comfort for 2/52 Clavicle fracture protocol: hand, elbow and pendulum UL clinic at 3/52 with repeat AP and incline views Referral to Physio from clinic as appropriate Considerations for surgical management Absolute indication for ORIF = neurovascular compromise Strong relative indication: Skin threat High demand patient >2cm displacement measured from inferior cortex to inferior cortex, For consideration of surgical management: Try to get imaged reviewed by Enis Guryel or Cameron Hatrick or if unable put patient on bluespeir for surgical consideration. Page 7 of 18 Lateral 1/3 clavicle fractures (10-15% prevalence) Type I Fracture occurs lateral to coracoclavicular ligaments (trapezoid, conoid) or interligamentous Usually minimally displaced Nonoperative Stable because conoid and trapezoid ligaments remain intact Type Fracture occurs medial to IIA intact conoid and trapezoid ligament Medial clavicle unstable Operative Up to 56% nonunion rate with nonoperative management Type Fracture occurs either IIB between ruptured conoid and intact trapezoid ligament or lateral to both ligaments torn Medial clavicle unstable Operative Up to 30-45% nonunion rate with nonoperative management Type Intraarticular fracture III extending into AC joint Conoid and trapezoid intact therefore stable injury Nonoperative Patients may develop posttraumatic AC arthritis Type A physeal fracture that occurs IV in the skeletally immature Displacement of lateral clavicle occurs superiorly through a tear in the thick periosteum Clavicle pulls out of periosteal Nonoperative sleeve Conoid and trapezoid ligaments remain attached to periosteum and overall the fracture pattern is stable Page 8 of 18 Type Comminuted fracture V Conoid and trapezoid ligaments remain attached to Operative comminuted fragment Medial clavicle unstable Conservative Treatment: Collar and cuff / Polysling depending on comfort for 2/52 Clavicle fracture protocol: hand, elbow and pendulum UL clinic at 3/52 with repeat AP and incline views Referral to Physio from clinic as appropriate Considerations for surgical management Strong relative indication: Skin threat High demand patient >2cm displacement measured from inferior cortex to inferior cortex, For consideration of surgical management: Try to get imaged reviewed by Enis Guryel or Cameron Hatrick or if unable put patient on bluespeir for surgical consideration. Medial 1/3 clavicle fractures (5-8% prevalence) Anterior Most often non-operative displacement Rarely symptomatic Nonoperative Posterior Rare injury (2-3%) displacement Often physeal fracture-dislocation (age < 25) Stability dependent on costoclavicular ligaments Must assess airway and great vessel Operative compromise CT scan to evaluate Surgical management with thoracic surgeon on standby Conservative Treatment (Anterior displacement): Collar and cuff / Polysling depending on comfort for 2/52 Clavicle fracture protocol:
Recommended publications
  • Medical Policy Ultrasound Accelerated Fracture Healing Device
    Medical Policy Ultrasound Accelerated Fracture Healing Device Table of Contents Policy: Commercial Coding Information Information Pertaining to All Policies Policy: Medicare Description References Authorization Information Policy History Policy Number: 497 BCBSA Reference Number: 1.01.05 Related Policies Electrical Stimulation of the Spine as an Adjunct to Spinal Fusion Procedures, #498 Electrical Bone Growth Stimulation of the Appendicular Skeleton, #499 Bone Morphogenetic Protein, #097 Policy Commercial Members: Managed Care (HMO and POS), PPO, and Indemnity Members Low-intensity ultrasound treatment may be MEDICALLY NECESSARY when used as an adjunct to conventional management (i.e., closed reduction and cast immobilization) for the treatment of fresh, closed fractures in skeletally mature individuals. Candidates for ultrasound treatment are those at high risk for delayed fracture healing or nonunion. These risk factors may include either locations of fractures or patient comorbidities and include the following: Patient comorbidities: Diabetes, Steroid therapy, Osteoporosis, History of alcoholism, History of smoking. Fracture locations: Jones fracture, Fracture of navicular bone in the wrist (also called the scaphoid), Fracture of metatarsal, Fractures associated with extensive soft tissue or vascular damage. Low-intensity ultrasound treatment may be MEDICALLY NECESSARY as a treatment of delayed union of bones, including delayed union** of previously surgically-treated fractures, and excluding the skull and vertebra. 1 Low-intensity ultrasound treatment may be MEDICALLY NECESSARY as a treatment of fracture nonunions of bones, including nonunion*** of previously surgically-treated fractures, and excluding the skull and vertebra. Other applications of low-intensity ultrasound treatment are INVESTIGATIONAL, including, but not limited to, treatment of congenital pseudarthroses, open fractures, fresh* surgically-treated closed fractures, stress fractures, arthrodesis or failed arthrodesis.
    [Show full text]
  • 5Th Metatarsal Fracture
    FIFTH METATARSAL FRACTURES Todd Gothelf MD (USA), FRACS, FAAOS, Dip. ABOS Foot, Ankle, Shoulder Surgeon Orthopaedic You have been diagnosed with a fracture of the fifth metatarsal bone. Surgeons This tyPe of fracture usually occurs when the ankle suddenly rolls inward. When the ankle rolls, a tendon that is attached to the fifth metatarsal bone is J. Goldberg stretched. Because the bone is weaker than the tendon, the bone cracks first. A. Turnbull R. Pattinson A. Loefler All bones heal in a different way when they break. This is esPecially true J. Negrine of the fifth metatarsal bone. In addition, the blood suPPly varies to different I. PoPoff areas, making it a lot harder for some fractures to heal without helP. Below are D. Sher descriPtions of the main Patterns of fractures of the fifth metatarsal fractures T. Gothelf and treatments for each. Sports Physicians FIFTH METATARSAL AVULSION FRACTURE J. Best This fracture Pattern occurs at the tiP of the bone (figure 1). These M. Cusi fractures have a very high rate of healing and require little Protection. Weight P. Annett on the foot is allowed as soon as the Patient is comfortable. While crutches may helP initially, walking without them is allowed. I Prefer to Place Patients in a walking boot, as it allows for more comfortable walking and Protects the foot from further injury. RICE treatment is initiated. Pain should be exPected to diminish over the first four weeks, but may not comPletely go away for several months. Follow-uP radiographs are not necessary if the Pain resolves as exPected.
    [Show full text]
  • Musculoskeletal System Imaging
    SUMPh “N. Testemitanu” Radiology and Medical imaging department MUSCULOSKELETAL SYSTEM IMAGING M. Crivceanschii, assistant professor GOALS AND OBJECTIVES • to be aware of the role of modern diagnostic imaging modalities • to be familiar with main radiological signs and syndromes • tips and tricks in musculoskeletal imaging IMAGING MODALITIES • that every student should now IMAGING MODALITIES • Conventional Radiography • Fluoroscopy • Arthrography • Computed Tomography • Magnetic Resonance Imaging • Ultrasound • Scintigraphy PLAIN X-RAY FILM • First line study for most medical issues • Excellent for fractures/bony detail • Very limited for soft tissues (ligaments, tendons, muscles) • Only a screening tool in the spine • The radiologist should obtain at least two (2) views of the bone involved at 90° angles to each other • with each view including two adjacent joints FLUOROSCOPY • Arthrography • Tenography • Arteriography • Percutaneous Bone or Soft Tissue Biopsy CT SCANNING • Excellent for bony structural anatomy in the setting of complicated fracture • Less effective than MR for soft tissues and active processes • High radiation Dose • Interventional options MRI SCANNING • Excellent for soft tissue pathology • Good-excellent for bone pathology • No ionizing radiation • NOT patient friendly • Some absolute and relative contraindications ULTRASOUND • Reproducible in trained hands • Excellent for superficial soft tissue elements including tendons and muscles • No ionizing radiation • Patient friendly SCINTIGRAPHY • Image the entire skeleton at once • It provides a metabolic picture • It is particularly helpful in condition such as fibrous dysplasia, Langerhans Cell Histocytosis or metastatic cancer. CONGENITAL SKELETAL ANOMALIES CONGENITAL SKELETAL ANOMALIES • Chromosomal disorders (e. g. Down’s syndrome, Marfan syndrome, Turner’s syndrome, etc.) • Dwarfism (rhizomelic – proximal segments shortening, mesomelic – middle segments, acromelic – distal segments) • Skeletal dysplasias (e.
    [Show full text]
  • ORTHOLOC™ 2 Jones Fracture System Was Developed in Conjunction With
    ™ Jones ORTHOLOC 2 Fracture System SURGICAL TECHNIQUE SURGEON DESIGN TEAM The ORTHOLOC™ 2 Jones Fracture System was developed in conjunction with: Robert Anderson, MD Belin Health Green Bay, WI Andrew Murphey, MD Campbell Clinic Orthopedics Memphis, TN Contents PREFACE Chapter 1 4 Introduction 4 System Description 5 Implants 5 Instruments 5 Bone Grafting Chapter 2 7 Surgical Technique 7 Patient Positioning 7 Alignment with Targeting Guide 10 Bone Preparation 11 Implantation 12 Headless Screw Implantation 14 Explant Information Chapter 3 15 Mini IGNITE™ Power Mix Appendix A 17 Implant Specification 17 Instruments 17 Ordering Information Proper surgical procedures and techniques are the responsibility of the medical professional. The following guidelines are furnished for information purposes only. Each surgeon must evaluate the appropriateness of the procedures based on his or her personal medical training and experience. Prior to use of the system, the surgeon should refer to the product package insert for complete warnings, precautions, indications, contraindications and adverse effects. Package inserts are also available by contacting the manufacturer. Contact information can be found on the back of this surgical technique and the package insert is available on the website listed. Please contact your local Wright representative for product availability. Introduction chapter 1 System Description Treatment for Jones Fractures has been a challenge for the Foot and Ankle specialist managing the athletically minded individuals. The ORTHOLOC™ 2 Jones Fracture is specifically designed to effectively and efficiently correct jones fractures of the 5th metatarsal. The instrumented and reproducible technique focuses on addressing the fracture fixation through (1) solid core, fatigue resistant compression implants, (2) targeted and guided instruments, and (3) multiple options for varying anatomies.
    [Show full text]
  • Commonly Missed Orthopedic Injuries
    Commonly Missed Orthopedic Injuries Holly Adams, PA-C Galveston-Texas City VA Outpatient Clinic Missed Orthopedic Injuries • Overlooking orthopedic injuries is a leading cause of medical malpractice claims out of the ED. • Am J Emergency Med 1996. 14(4):341-5. Karcz et al, 1996. • Massachusetts Joint Underwriters Association: Missed fractures comprised 20% (during1980-1987) and 10% (1988-1990) of malpractice claims. • Fractures are 2nd in claim amount and number of cases established against ED physicians. Radiographics Commonly Missed • Wei (Taipei, Acta Radiol 2006) identified specific regions of misinterpretation: • Foot 7.6% 18/238 • Knee 6.3% 14/224 • Elbow 6.0% 14/234 • Hand 5.4% 10/185 • Wrist 4.1% 25/606 • Hip 3.9% 20/512 • Ankle 2.8% 8/282 • Shoulder 1.9% 5/266 • Tibia/fibula 0.4% 1/226 • Total 3.7% 115/3081 Pitfalls of ER X-Rays • Incorrect interpretation (interpretation errors) • Inadequate (suboptimal) images • Over‐reliance on radiography • Inadequate clinical examination Fractures are a Clinical Diagnosis • 1) Mechanism of injury • 2) Findings on physical examination • 3) Age of the patient. • Radiography confirms the diagnosis and provides anatomical detail. • Fractures can be present without radiographic abnormality. Fractures are a Clinical Diagnosis • If a fracture is clinically suspected • but not radiographically apparent, treat the patient as though a fracture were present with • adequate immobilization and follow‐up (e.g., scaphoid fracture, femoral neck fracture). Fractures are a Clinical Diagnosis • Soft tissue injuries may be more significant that the skeletal injury (ligaments, articular cartilage, neurovascular injuries). • Diagnosis by physical exam or imaging studies: MRI, angiography, arthroscopy, stress views.
    [Show full text]
  • Splinting, Casting, Wrapping and Taping Faculty Disclosure
    11/2/2016 Faculty Disclosure I have nothing to disclose. Splinting, Casting, Wrapping and Taping Wade M. Rankin, DO, CAQSM Assistant Professor University of Kentucky College of Medicine, Department of Family and Community Medicine Educational Need/Practice Gap Objectives Gap = Lack of fracture knowledge and ability Upon completion of this educational activity, to manage some outpatient fractures in your you will be able to: outpatient clinic • Outline common fractures seen in outpatient family medicine clinics. • Discuss strategies for fracture management Need = Ability to manage common and fracture care for common outpatient outpatient non-operative fracture care fractures. • Review common indications for taping and wrapping in outpatient settings. Expected Outcome Active Learning -Comfort with common outpatient fractures At the end of this session will discuss certain and ability to manage certain fractures cases and have some audience response -Comfort with splinting, taping, wrapping questions to gauge learning. -Comfort with pre-fabricated splints and common applications 1 11/2/2016 Most Common Fractures? Most Common • Depends on the source: – Clavicle –Arm –Ankle – Wrist – Hip –Foot – Toes –Hand – Finger –Nose Depends on the age: Depends on Age • Common Fractures in Children – 1. Distal radius fractures – 2. Phalanges of the hands – 3. Carpal-metacarpal region – 4. Clavicle Incidence Pediatric Fractures 2 11/2/2016 Types of Pediatric Fractures Salter-Harris Fracture Types Salter-Harris Fracture Types Salter-Harris Fracture I • S-
    [Show full text]
  • Management of Fifth Metatarsal Fractues
    Management of Fifth Metatarsal Fractues Terrence M. Philbin D.O. Columbus, Ohio Proximal Fifth Metatarsal Fractures • Tuberosity fractures • Jones fractures • Diaphyseal stress fractures Fifth Metatarsal Fractures Presentation • Similar mechanism as an ankle sprain • Often too painful to bear weight Tuberosity Fractures • Most common, 90% of 5th mt fxs • Mechanism is lateral band of P. fascia, usually NOT P. brevis depending on size of the fragment • Displacement is rare Fifth Metatarsal Fractures Avulsion Fracture • Fracture usually extra-articular. • Presents with pain, swelling on lateral border of foot. Fifth Metatarsal Fractures Tuberosity Fracture • Treatment – Walking boot x4 weeks, wb as tolerated – Healing can be prolonged, return to activity is based on clinical recovery Avulsion Fracture • 85% of patients expected to return to preinjury functional level at 6 months after injury • Symptomatic nonunion treated with excision of fragment vs. late orif Egol et al. FAI 2007 Avulsion Fractures • Large, displaced, or intra-articular fractures require orif with a bicortical screw vs tension band Sarimo et al. AmJSM 2006 Cases • 45 y/o with 5th mt prox avulsion/fracture Cases • Peroneal brevis attachment pulled off • Fragment large enough for fixation Jones Fracture : Defined • Best defined as a fracture of the metaphyseal- diaphyseal junction at or distal to the 4/5 intermetatarsal articulation 5th Metatarsal : Blood Supply • Metaphyseal, nutrient and periosteal vessels • Avascular zone at metaphyseal-diaphyseal junction Jones Fracture: Epidemiology • Multiple etiologies proposed • Raikin: – Lateral overload from cavovarus foot posture – Metatarsus adductus – Skew foot Raikin et al: AJSM 36(7), 2008 Jones Fracture: Tx Options • Treat non-weight- bearing in short-leg cast for 6 weeks • Operative treatment for delayed union, non- union or acutely in high performance athlete ITEM ITEM 1 2 Cast vs.
    [Show full text]
  • Diagnosis and Treatment of Forefoot Disorders. Section 1: Digital Deformities
    CLINICAL PRACTICE GUIDELINE Diagnosis and Treatment of Forefoot Disorders. Section 1: Digital Deformities Clinical Practice Guideline Forefoot Disorders Panel: James L. Thomas, DPM,1 Edwin L. Blitch, IV, DPM,2 D. Martin Chaney, DPM,3 Kris A. Dinucci, DPM,4 Kimberly Eickmeier, DPM,5 Laurence G. Rubin, DPM,6 Mickey D. Stapp, DPM,7 and John V. Vanore, DPM8 Digital Deformities (Pathway 2) This clinical practice guideline (CPG) is based upon consensus of current clinical practice and review of the Digital deformities are among the most common fore- clinical literature. The guideline was developed by the Clin- foot pathologies encountered by foot and ankle surgeons. ical Practice Guideline Forefoot Disorders Panel of the These deformities may be either congenital or acquired, American College of Foot and Ankle Surgeons. The guide- with the incidence of digital deformities greater among line and references annotate each node of the corresponding females than males in almost all age groups (1). Whereas pathways. biomechanical dysfunction is usually discussed as the primary cause of digital deformities, these pathologies Introduction to Forefoot Disorders (Pathway 1) also may be caused by a variety of other conditions including neuromuscular and arthritic disorders (2-4). Forefoot pain is a common presenting complaint seen by The proper identification of the deforming forces and foot and ankle surgeons. Patients often describe their pain in resultant tendon and capsuloligamentous imbalance is a vague and encompassing manner. The purpose of this critical in determining the treatment plan. Digital defor- clinical practice guideline is to review the varied patholo- mities may occur as an isolated entity or as a component gies that comprise the differential diagnosis of forefoot pain, of other foot and ankle conditions (1, 5).
    [Show full text]
  • Fundamentals of Radiographic Pathology © by John Fleming, M.Ed
    Three Phase CEUs & SCS Continuing Education Presents: Fundamentals of Radiographic Pathology © by John Fleming, M.Ed. RT(R)(MR)(CT) Copyright © 2008 Forward The premise behind the creation of this partnership is to provide imaging professionals with access to high quality yet affordable continuing education units (CEUs). Please feel free to share this disk with your colleagues and have them contact John Fleming at (727) 796-0397 for information regarding the submission of these 12 CEUs for credit with the Florida Department of Health and the American Registry of Radiologic Technologists. Thanks for your support and be sure to look for additional courses to be developed in the near future by Three Phase CEUs and SCS Continuing Education. Course Abstract & Objectives: Course Abstract: The objective of this home study course is to provide the learner with a computer based tutorial that will give them with the means to learn the fundamentals of radiographic pathology. After completion of this home study course, the participant will be able to identify the major characteristics of the radiographic pathologies that are associated with the body systems covered in this course. A 100 question mastery test will be administered at the end of this home study course in order to ensure that competency of the material has been achieved. Chapters: • Introduction to Pathology….…. pg 5 • Skeletal System…………….….pg 35 • Respiratory System………..…..pg 111 • Cardiovascular System …..……pg 195 • Nervous System………..……... pg 215 • Urinary System………..……… pg 255 • Reproductive System.………… pg 312 • Gastrointestinal System………..pg 322 • Hepatobiliary System………….pg 394 • Trauma Radiography…………. pg 427 • About the Author……………... pg 483 • References…………………….
    [Show full text]
  • Operative Versus Nonoperative Treatment of Jones Fractures: a Decision Analysis Model
    An Original Study Operative Versus Nonoperative Treatment of Jones Fractures: A Decision Analysis Model Julius A. Bishop, MD, Hillary J. Braun, BA, and Kenneth J. Hunt, MD Abstract Optimal management of metadiaphyseal decision tree was constructed, and fold-back fifth metatarsal fractures (Jones fractures) and sensitivity analyses were performed to remains controversial. Decision analysis can determine optimal treatment. optimize clinical decision-making based on Nonoperative treatment was associated available evidence and patient preferences. with a value of 7.74, and operative treatment We conducted a study to establish the with an intramedullary screw was associat- determinants of decision-making and to ed with a value of 7.88 given the outcome determine the optimal treatment strategy probabilities and utilities studied, making for Jones fractures using a decision analysis operative treatment the optimal strategy. model. Probabilities for potential outcomes When parameters were varied, nonoperative of operative and nonoperative treatment treatment was favored when the likelihood of Jones fractures were determined from a of healing with nonoperative treatment rose review of the literature. Patient preferences above 82% and when the probability of heal- for outcomes were obtained by question- ing after surgery fell below 92%. naire completed by 32 healthy adults with no In this decision analysis model, operative history of foot fracture. Derived values were fixation is the preferred management strate- used in the model as a measure of utility. A gy for Jones fractures. he optimal management strategy for Expected-value decision analysis, a research tool acute fractures of the metadiaphyseal fifth that helps guide decision-making in situations of metatarsal (Jones fractures) is controversial.
    [Show full text]
  • A Novel Method for Internal Fixation of Basal Fifth Metatarsal Fracture in Athletes: a Cadaveric Study of the F.E.R.I
    D’Hooghe et al. Journal of Experimental Orthopaedics (2019) 6:45 Journal of https://doi.org/10.1186/s40634-019-0213-5 Experimental Orthopaedics RESEARCH Open Access A novel method for internal fixation of basal fifth metatarsal fracture in athletes: a cadaveric study of the F.E.R.I. technique (Fifth metatarsal, Extra-portal, Rigid, Innovative) Pieter D’Hooghe1, Silvio Caravelli2* , Simone Massimi2, James Calder3,4, Peter Dzendrowskyj1 and Stefano Zaffagnini2 Abstract Purpose: One of the main problems of Kirschner wire fixation of fifth metatarsal base fractures (in combination with a tension band wiring technique) seems to be hardware intolerance and several studies in athletes also report failure after isolated fixation with a screw only. These reports prompted us to look at new materials and a novel technique through fixation with an intramedullary screw combined with a high-resistance suture via the presented F.E.R.I. (Fifth metatarsal, Extra-portal, Rigid, Innovative) technique. Methods: This cadaveric study describes F.E.R.I. technique. On a cadaver, through two mini portals, a full reduction and solid internal fixation with an intramedullary screw and suture cerclage with Fiberwire of a fifth metatarsal base fracture is achieved. In this article, the cadaveric study and proposed surgical technique are explained and illustrated step by step. Results: The presented internal fixation F.E.R.I. technique is indicated in acute proximal fractures, stress fractures or non-union of metatarsal 5 (Zone 2–3 by Lawrence and Botte) and it resulted feasible and stable during manual stress test. The authors intend to study this technique in the clinical setting in the near future.
    [Show full text]
  • Indirect Signs of Trauma A. Soft Tissue Swelling Due to Haemorrhage Is Commonly Associated with Fractures Or Ligamentous Injury
    CHAPTER 20. EXTREMITIES TRAUMA 101 Indirect signs of trauma a. Soft tissue swelling due to haemorrhage is commonly associated with fractures or ligamentous injury. b. Joint effusion due to haemorrhage or fluid displaces the extracapsular fat pads away from the bone creating what is known as the "fat pad" sign. This is useful for assessing trauma involving the wrist and elbow (fig 20.3). c. Free fat within a joint capsule is indicative of bony injury. It is best demonstrated on a horizontal beam radiograph and appears as a fluid-fluid level due to free fat floating on top of synovial fluid or blood (fig 20.4). Fig 20.3 Note displaced fat pad posterior to the elbow joint following a supracondylar fracture. Fig 20.4 Horizontal beam lateral knee view shows a fat fluid level following a fracture. Pitfalls in imaging a. Nutrient arteries appear as radiolucent lines and can be mistaken for crack fractures. This is commonly seen in tubular bones. PATIERN RECOGNITION IN DIAGNOSTIC IMAGING: PART 3. MUSCULOSKELETAL PATIERNS 102 b. Prior to bony maturation, the epiphyseal plate can appear irregular with sclerosis. The periphery of the epiphyses is usually the last to fuse and should not be mistaken for a fracture. c. Bony grooves or notches can be misinterpreted as a linear fracture. This is not uncommonly seen in the bicipital groove with the humerus in internal rotation. d. Accessory ossicles can mimic small avulsed bony fragments. Comparison views and the presence of any indirect signs of trauma, such as soft tissue swelling or joint effusion, will help to confirm or exclude a fracture.
    [Show full text]