Management of Acute Exacerbation of Asthma and Chronic Obstructive Pulmonary Disease in the Emergency Department
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Section 8 Pulmonary Medicine
SECTION 8 PULMONARY MEDICINE 336425_ST08_286-311.indd6425_ST08_286-311.indd 228686 111/7/121/7/12 111:411:41 AAMM CHAPTER 66 EVALUATION OF CHRONIC COUGH 1. EPIDEMIOLOGY • Nearly all adult cases of chronic cough in nonsmokers who are not taking an ACEI can be attributed to the “Pathologic Triad of Chronic Cough” (asthma, GERD, upper airway cough syndrome [UACS; previously known as postnasal drip syndrome]). • ACEI cough is idiosyncratic, occurrence is higher in female than males 2. PATHOPHYSIOLOGY • Afferent (sensory) limb: chemical or mechanical stimulation of receptors on pharynx, larynx, airways, external auditory meatus, esophagus stimulates vagus and superior laryngeal nerves • Receptors upregulated in chronic cough • CNS: cough center in nucleus tractus solitarius • Efferent (motor) limb: expiratory and bronchial muscle contraction against adducted vocal cords increases positive intrathoracic pressure 3. DEFINITION • Subacute cough lasts between 3 and 8 weeks • Chronic cough duration is at least 8 weeks 4. DIFFERENTIAL DIAGNOSIS • Respiratory tract infection (viral or bacterial) • Asthma • Upper airway cough syndrome (postnasal drip syndrome) • CHF • Pertussis • COPD • GERD • Bronchiectasis • Eosinophilic bronchitis • Pulmonary tuberculosis • Interstitial lung disease • Bronchogenic carcinoma • Medication-induced cough 5. EVALUATION AND TREATMENT OF THE COMMON CAUSES OF CHRONIC COUGH • Upper airway cough syndrome: rhinitis, sinusitis, or postnasal drip syndrome • Presentation: symptoms of rhinitis, frequent throat clearing, itchy -
Allergic Bronchopulmonary Aspergillosis As a Cause of Bronchial Asthma in Children
Egypt J Pediatr Allergy Immunol 2012;10(2):95-100. Original article Allergic bronchopulmonary aspergillosis as a cause of bronchial asthma in children Background: Allergic bronchopulmonary aspergillosis (ABPA) occurs in Dina Shokry, patients with asthma and cystic fibrosis. When aspergillus fumigatus spores Ashgan A. are inhaled they grow in bronchial mucous as hyphae. It occurs in non Alghobashy, immunocompromised patients and belongs to the hypersensitivity disorders Heba H. Gawish*, induced by Aspergillus. Objective: To diagnose cases of allergic bronchopulmonary aspergillosis among asthmatic children and define the Manal M. El-Gerby* association between the clinical and laboratory findings of aspergillus fumigatus (AF) and bronchial asthma. Methods: Eighty asthmatic children were recruited in this study and divided into 50 atopic and 30 non-atopic Departments of children. The following were done: skin prick test for aspergillus fumigatus Pediatrics and and other allergens, measurement of serum total IgE, specific serum Clinical Pathology*, aspergillus fumigatus antibody titer IgG and IgE (AF specific IgG and IgE) Faculty of Medicine, and absolute eosinophilic count. Results: ABPA occurred only in atopic Zagazig University, asthmatics, it was more prevalent with decreased forced expiratory volume Egypt. at the first second (FEV1). Prolonged duration of asthma and steroid dependency were associated with ABPA. AF specific IgE and IgG were higher in the atopic group, they were higher in Aspergillus fumigatus skin Correspondence: prick test positive children than negative ones .Wheal diameter of skin prick Dina Shokry, test had a significant relation to the level of AF IgE titer. Skin prick test Department of positive cases for aspergillus fumigatus was observed in 32% of atopic Pediatrics, Faculty of asthmatic children. -
52570 Dahlem.Pdf
UvA-DARE (Digital Academic Repository) Pediatric acute lung injury Dahlem, P.G. Publication date 2007 Document Version Final published version Link to publication Citation for published version (APA): Dahlem, P. G. (2007). Pediatric acute lung injury. General rights It is not permitted to download or to forward/distribute the text or part of it without the consent of the author(s) and/or copyright holder(s), other than for strictly personal, individual use, unless the work is under an open content license (like Creative Commons). Disclaimer/Complaints regulations If you believe that digital publication of certain material infringes any of your rights or (privacy) interests, please let the Library know, stating your reasons. In case of a legitimate complaint, the Library will make the material inaccessible and/or remove it from the website. Please Ask the Library: https://uba.uva.nl/en/contact, or a letter to: Library of the University of Amsterdam, Secretariat, Singel 425, 1012 WP Amsterdam, The Netherlands. You will be contacted as soon as possible. UvA-DARE is a service provided by the library of the University of Amsterdam (https://dare.uva.nl) Download date:07 Oct 2021 Proefschrift.qxd 24.05.2007 14:03 Uhr Seite 1 PEDIATRIC ACUTE LUNG INJURY Peter Dahlem Proefschrift.qxd 24.05.2007 14:03 Uhr Seite 2 Pediatric acute lung injury. Thesis, University of Amsterdam, Amsterdam, The Netherlands ISBN 978-3-00-021801-9 Copyright 2007 © P. Dahlem No part of this thesis may be reproduced or transmitted in any form or by any means, without permission of the author. -
Understanding Asthma
Understanding Asthma The Mount Sinai − National Jewish Health Respiratory Institute was formed by the nation’s leading respiratory hospital National Jewish Health, based in Denver, and top ranked academic medical center the Icahn School of Medicine at Mount Sinai in New York City. Combining the strengths of both organizations into an integrated Respiratory Institute brings together leading expertise in diagnosing and treating all forms of respiratory illness and lung disease, including asthma, chronic obstructive pulmonary disease (COPD), interstitial lung disease (ILD) and bronchiectasis. The Respiratory Institute is based in New York City on the campus of Mount Sinai. njhealth.org Understanding Asthma An educational health series from National Jewish Health IN THIS ISSUE What Is Asthma? 2 How Does Asthma Develop? 4 How Is Asthma Diagnosed? 5 What Are the Goals of Treatment? 7 How Is Asthma Managed? 7 What Things Make Asthma Worse and How Can You Control Them? 8 Nocturnal Asthma 18 Occupational Asthma 19 Medication Therapy 20 Monitoring Your Asthma 29 Using an Action Plan 33 Living with Asthma 34 Note: This information is provided to you as an educational service of National Jewish Health. It is not meant as a substitute for your own doctor. © Copyright 1998, revised 2014, 2018 National Jewish Health What Is Asthma? This booklet, prepared by National Jewish Health in Denver, is intended to provide information to people with asthma. Asthma is a chronic respiratory disease — sometimes worrisome and inconvenient — but a manageable condition. With proper understanding, good medical care and monitoring, you can keep asthma well controlled. That’s our treatment goal at National Jewish Health: to teach patients and families how to manage asthma, so that they can lead full and productive lives. -
Exercise-Induced Dyspnea in College-Aged Athletes
A Peer Reviewed Publication of the College of Health Care Sciences at Nova Southeastern University Dedicated to allied health professional practice and education http://ijahsp.nova.edu Vol. 11 No. 3 ISSN 1540-580X Exercise-Induced Dyspnea in College-Aged Athletes Katherine R. Newsham, PhD, ATC 1 Ethel M. Frese, PT, DPT, CCS2 Richard A. McGuire, PhD, CCC-SLP 3 Dennis P. Fuller, PhD, CCC-SLP 4 Blakeslee E. Noyes, MD 5 1. Assistant Professor, Department of Physical Therapy and Athletic Training, Saint Louis University, St. Louis, MO 2. Associate Professor, Department of Physical Therapy and Athletic Training, Saint Louis University, St. Louis, MO 3. Professor, Department of Communication Sciences & Disorders, Saint Louis University, St. Louis, MO 4. Associate Professor, Department of Communication Sciences & Disorders, Saint Louis University, St. Louis, MO 5. Professor, Saint Louis University School of Medicine, St. Louis, MO, Director of Pulmonary Medicine, Cardinal Glennon Children’s Medical Center, St. Louis, MO United States CITATION: Newsham K, Frese E, McGuire R, Fuller D, Noyes B. Exercise-Induced Dyspnea in College-Aged Athletes. The Internet Journal of Allied Health Sciences and Practice. July 2013. Volume 11 Number 3. ABSTRACT Purpose: Shortness of breath or difficulty breathing during exercise is referred to as exercise-induced dyspnea (EID), and is a common complaint from athletes. The purpose of this study was to assess the prevalence of EID among college aged athletes and to explore the medical encounters, including diagnostic testing, arising from this complaint. Method: We surveyed intercollegiate (n=122) and club sport (n=103) athletes regarding their experience with EID, including medical diagnoses, diagnostic procedures, environmental factors, and treatment effectiveness. -
Asthma Exacerbation Management
CLINICAL PATHWAY ASTHMA EXACERBATION MANAGEMENT TABLE OF CONTENTS Figure 1. Algorithm for Asthma Exacerbation Management – Outpatient Clinic Figure 2. Algorithm for Asthma Management – Emergency Department Figure 3. Algorithm for Asthma Management – Inpatient Figure 4. Progression through the Bronchodilator Weaning Protocol Table 1. Pediatric Asthma Severity (PAS) Score Table 2. Bronchodilator Weaning Protocol Target Population Clinical Management Clinical Assessment Treatment Clinical Care Guidelines for Treatment of Asthma Exacerbations Children’s Hospital Colorado High Risk Asthma Program Table 3. Dosage of Daily Controller Medication for Asthma Control Table 4. Dosage of Medications for Asthma Exacerbations Table 5. Dexamethasone Dosing Guide for Asthma Figure 5. Algorithm for Dexamethasone Dosing – Inpatient Asthma Patient | Caregiver Education Materials Appendix A. Asthma Management – Outpatient Appendix B. Asthma Stepwise Approach (aka STEPs) Appendix C. Asthma Education Handout References Clinical Improvement Team Page 1 of 24 CLINICAL PATHWAY FIGURE 1. ALGORITHM FOR ASTHMA EXACERBATION MANAGEMENT – OUTPATIENT CLINIC Triage RN/MA: • Check HR, RR, temp, pulse ox. Triage level as appropriate • Notify attending physician if patient in severe distress (RR greater than 35, oxygen saturation less than 90%, speaks in single words/trouble breathing at rest) Primary RN: • Give oxygen to keep pulse oximetry greater than 90% Treatment Inclusion Criteria 1. Give nebulized or MDI3 albuterol up to 3 doses. Albuterol dosing is 0.15 to 0.3mg/kg per 2007 • 2 years or older NHLBI guidelines. • Treated for asthma or asthma • Less than 20 kg: 2.5 mg neb x 3 or 2 to 4 puffs MDI albuterol x 3 exacerbation • 20 kg or greater: 5 mg neb x 3 or 4 to 8 puffs MDI albuterol x 3 • First time wheeze with history consistent Note: For moderate (dyspnea interferes with activities)/severe (dyspnea at rest) exacerbations you with asthma can add atrovent to nebulized albuterol at 0.5mg/neb x 3. -
Pediatric ARDS: Review of Consensus Recommendations
Pediatric ARDS: Review of consensus recommendations Nikhil Patankar, MD MBA Pediatric Intensivist, Director for Quality, PICU Beacon Children’s Hospital South Bend, IN What is ARDS? Etiologies Direct Indirect • Bronchiolitis • Sepsis • Pneumonia • Pancreatitis • Aspiration of gastric • Fat embolism contents • Massive blood • Drowning/Submersion transfusion • TRALI • Major trauma • Post obstructive • Anaphylaxis pulmonary edema • Post Lung Transplant • Inhalational injury • Post stem cell transplant • Pulmonary hemorrhage • Pulmonary fibrosis Pathophysiology • 3 stages: exudative, proliferative, fibrotic • Alveolar inflammation • Surfactant depletion • Capillary leak • Alveolar collapse – Increased physiologic deadspace – Poor oxygen transport Introduction • First description of respiratory distress syndrome – Asbaugh etal in 1967 – 12 patients with tachypnea, poor lung compliance and hypoxic respiratory failure – Changes similar to neonatal respiratory distress syndrome – Coined the term “Adult” RDS aka ARDS Ashbaugh DG, Bigelow DB, Petty TL, et al: Acute respiratory distress in adults. Lancet 1967; 2:319–323 Evolution • American-European Consensus Conference in 1994 – Renamed it “Acute” RDS – AECC criteria – Acute onset – Severe hypoxemia (PaO2/FiO2<200) – Bilateral opacities on chest X-ray – Absence of left ventricular failure, confirmed by clinical examination or right heart catheterization (PCWP <18 mmHg). Berlin definition Need for pediatric definition • Berlin definition did not take children into consideration • Need for PaO2 – -
08-0205: N.M. and DEPARTMENT of the NAVY, PUGET S
United States Department of Labor Employees’ Compensation Appeals Board __________________________________________ ) N.M., Appellant ) ) and ) Docket No. 08-205 ) Issued: September 2, 2008 DEPARTMENT OF THE NAVY, PUGET ) SOUND NAVAL SHIPYARD, Bremerton, WA, ) Employer ) __________________________________________ ) Appearances: Oral Argument July 16, 2008 John Eiler Goodwin, Esq., for the appellant No appearance, for the Director DECISION AND ORDER Before: DAVID S. GERSON, Judge COLLEEN DUFFY KIKO, Judge JAMES A. HAYNES, Alternate Judge JURISDICTION On October 30, 2007 appellant filed a timely appeal from a November 17, 2006 decision of the Office of Workers’ Compensation Programs denying his occupational disease claim. Pursuant to 20 C.F.R. §§ 501.2(c) and 501.3, the Board has jurisdiction over the merits of the claim. ISSUE The issue is whether appellant has established that he sustained occupational asthma in the performance of duty due to accepted workplace exposures. On appeal, he, through his attorney, asserts that the Office did not provide Dr. William C. Stewart, the impartial medical examiner, with a complete, accurate statement of accepted facts. FACTUAL HISTORY On December 8, 2004 appellant, then a 57-year-old insulator, filed an occupational disease claim (Form CA-2) asserting that he sustained occupational asthma and increasing shortness of breath due to workplace exposures to fiberglass, silicates, welding smoke, polychlorobenzenes, rubber, dusts, gases, fumes and smoke from “burning out” submarines from 1991 through January -
Clinical Perspectives on the Association Between Respiratory Syncytial Virus and Reactive Airway Disease Nele Sigurs
Respiratory Research Vol 3 Suppl 1 Sigurs Clinical perspectives on the association between respiratory syncytial virus and reactive airway disease Nele Sigurs Department of Pediatrics, Borås Central Hospital, Borås, Sweden Corresponding author: Nele Sigurs (e-mail: [email protected]) Received: 24 May 2002 Accepted: 30 May 2002 Published: 24 June 2002 Respir Res 2002, 3 (suppl 1):S8-S14 © 2002 BioMed Central Ltd (Print ISSN 1465-9921; Online ISSN 1465-993X) Abstract Asthma is a leading cause of morbidity and mortality among children worldwide, as is respiratory syncytial virus (RSV). This report reviews controlled retrospective and prospective studies conducted to investigate whether there is an association between RSV bronchiolitis in infancy and subsequent development of reactive airway disease or allergic sensitization. Findings indicate that such a link to bronchial obstructive symptoms does exist and is strongest for children who experienced severe RSV illness that requires hospitalization. However, it is not yet clear what roles genetic predisposition and environmental or other risk factors may play in the interaction between RSV bronchiolitis and reactive airway disease or allergic sensitization. Randomized, prospective studies utilizing an intervention against RSV, such as a passive immunoprophylactic agent, may determine whether preventing RSV bronchiolitis reduces the incidence of asthma. Keywords: allergy, asthma, bronchiolitis, reactive airway disease, respiratory syncytial virus Introduction nesses are at even greater risk for serious infection and Childhood asthma is a serious global public health hospitalization from RSV [3]. problem. According to the World Health Organization [1], asthma is the most common chronic disease in children. In RSV bronchiolitis is characterized by expiratory wheezing some areas of the world the incidence in children is over and respiratory distress [4]. -
The EM Educator Series
The EM Educator Series The EM Educator Series: The Sick Adult Asthma Patient Author: Alex Koyfman, MD (@EMHighAK) // Edited by: Brit Long, MD (@long_brit) and Manpreet Singh, MD (@MprizzleER) Case#1: A 48-year-old male presents with diffuse wheezes and elevated respiratory rate. He is in respiratory distress. His wife says he has a history of severe asthma, and he has not been able to utilize his controller medications in the last week. Case#2: A 29-year-old female comes in with somnolence and decreased air movement bilaterally. Per EMS, she has a history of severe asthma. Questions for Learners: 1. What conditions can mimic asthma? 2. What are red flags in the history and exam for severe asthma, as well as mimics? 3. What other medications should you consider beyond nebulizers and steroids? What place do magnesium, ketamine, and epinephrine have? 4. Is NIPPV effective for respiratory distress in asthma? 5. How can ultrasound help? 6. While you try to avoid it if possible, how do you optimize intubation? 7. What ventilator settings should you use after intubation? What is permissive hypercapnia? 8. What should you consider and do you do when the patient crashes after intubation? 1 | P a g e From emDOCs.net Suggested Resources: ✓ Articles: o emDocs – Mimics o LITFL – Severe Asthma o CoreEM – Life-threatening asthma o First 10 EM ✓ Podcasts: o REBEL EM – Crashing Asthmatic o REBEL EM – Obstructive Physiology o EMCrit – Severe Asthmatic o EMCrit – Finger Thoracostomy 2 | P a g e From emDOCs.net Answers for Learners: 1. What conditions can mimic asthma? Anaphylaxis: This condition presents with similar pathophysiology as asthma with hyperactive immune response and bronchoconstriction. -
The Role of Hypercapnia in Acute Respiratory Failure Luis Morales-Quinteros1* , Marta Camprubí-Rimblas2,4, Josep Bringué2,9, Lieuwe D
Morales-Quinteros et al. Intensive Care Medicine Experimental 2019, 7(Suppl 1):39 Intensive Care Medicine https://doi.org/10.1186/s40635-019-0239-0 Experimental REVIEW Open Access The role of hypercapnia in acute respiratory failure Luis Morales-Quinteros1* , Marta Camprubí-Rimblas2,4, Josep Bringué2,9, Lieuwe D. Bos5,6,7, Marcus J. Schultz5,7,8 and Antonio Artigas1,2,3,4,9 From The 3rd International Symposium on Acute Pulmonary Injury Translational Research, under the auspices of the: ‘IN- SPIRES®' Amsterdam, the Netherlands. 4-5 December 2018 * Correspondence: luchomq2077@ gmail.com Abstract 1Intensive Care Unit, Hospital Universitario Sagrado Corazón, The biological effects and physiological consequences of hypercapnia are increasingly Carrer de Viladomat, 288, 08029 understood. The literature on hypercapnia is confusing, and at times contradictory. Barcelona, Spain On the one hand, it may have protective effects through attenuation of pulmonary Full list of author information is available at the end of the article inflammation and oxidative stress. On the other hand, it may also have deleterious effects through inhibition of alveolar wound repair, reabsorption of alveolar fluid, and alveolar cell proliferation. Besides, hypercapnia has meaningful effects on lung physiology such as airway resistance, lung oxygenation, diaphragm function, and pulmonary vascular tree. In acute respiratory distress syndrome, lung-protective ventilation strategies using low tidal volume and low airway pressure are strongly advocated as these have strong potential to improve outcome. These strategies may come at a price of hypercapnia and hypercapnic acidosis. One approach is to accept it (permissive hypercapnia); another approach is to treat it through extracorporeal means. -
2020 GINA Pocket Guide for Asthma Management and Prevention
POCKET GUIDE FOR ASTHMA MANAGEMENT AND PREVENTION (for Adults and Children Older than 5 Years) DISTRIBUTE OR COPY NOT DO MATERIAL- COPYRIGHTED A Pocket Guide for Health Professionals Updated 2020 BASED ON THE GLOBAL STRATEGY FOR ASTHMA MANAGEMENT AND PREVENTION © 2020 Global Initiative for Asthma GLOBAL INITIATIVE FOR ASTHMA ASTHMA MANAGEMENT AND PREVENTION DISTRIBUTE for adults and children older ORthan 5 years COPY NOT A POCKET GUIDE FOR HEALTHDO PROFESSIONALS MATERIAL-Updated 2020 GINA Science Committee Chair: Helen Reddel, MBBS PhD COPYRIGHTED GINA Board of Directors Chair: Louis-Philippe Boulet, MD GINA Dissemination and Implementation Committee Chair: Mark Levy, MD (to Sept 2019); Alvaro Cruz, MD (from Sept 2019) GINA Assembly The GINA Assembly includes members from many countries, listed on the GINA website www.ginasthma.org. GINA Executive Director Rebecca Decker, BS, MSJ Names of members of the GINA Committees are listed on page 48. 1 LIST OF ABBREVIATIONS BDP Beclometasone dipropionate COPD Chronic obstructive pulmonary disease CXR Chest X-ray DPI Dry powder inhaler FeNO Fraction of exhaled nitric oxide FEV1 Forced expiratory volume in 1 second FVC Forced vital capacity GERD Gastroesophageal reflux disease HDM House dust mite ICS Inhaled corticosteroids ICS-LABA Combination ICS and LABA Ig Immunoglobulin IL Interleukin DISTRIBUTE IV Intravenous OR LABA Long-acting beta2-agonist COPY LAMA Long-acting muscarinic antagonist NOT LTRA Leukotriene receptor antagonistDO n.a. Not applicable NSAID Nonsteroidal anti-inflammatory drug MATERIAL- O2 Oxygen OCS Oral corticosteroids PEF Peak expiratory flow pMDI PressurizedCOPYRIGHTED metered dose inhaler SABA Short-acting beta2-agonist SC Subcutaneous SLIT Sublingual immunotherapy 2 TABLE OF CONTENTS List of abbreviations ........................................................................................