Basic Life Support Health Care Provider
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NIMS 508 Stillwater Flood Search and Rescue Team
Resource Typing Definition for Response Mass Search and Rescue Operations STILLWATER/FLOOD SEARCH AND RESCUE TEAM DESCRIPTION The Stillwater/Flood Search and Rescue (SAR) Team conducts search, rescue, and recovery operations for humans and animals in stillwater and stillwater/flood environments RESOURCE CATEGORY Search and Rescue RESOURCE KIND Team OVERALL FUNCTION The Stillwater/Flood SAR team: 1. Searches for and rescues individuals who may be injured or otherwise in need of medical attention 2. Provides emergency medical care, including Basic Life Support (BLS) 3. Provides animal rescue 4. Transports humans and animals to the nearest location for secondary land or air transport 5. Provides shore-based and boat-based water rescue for humans and animals 6. Supports helicopter rescue operations and urban SAR in water environments for humans and animals 7. Operates in environments with or without infrastructure, including environments with disrupted access to roadways, utilities, transportation, and medical facilities, and with limited access to shelter, food, and water COMPOSITION AND ORDERING 1. Requestor and provider address certain needs and issues prior to deployment, including: SPECIFICATIONS a. Communications equipment that enables more than intra-team communications, such as programmable interoperable communications equipment with capabilities for command, logistics, military, air, and so on b. Type of incident and operational environment, such as weather event, levy or dam breach, or risk of hazardous materials (HAZMAT) contamination c. Additional specialized personnel, such as advanced medical staff, animal SAR specialists, logistics specialists, advisors, helicopter support staff, or support personnel for unique operating environments d. Additional transportation-related needs, including specific vehicles, boats, trailers, drivers, mechanics, equipment, supplies, fuel, and so on e. -
Hypercapnia in Hemodialysis (HD)
ISSN: 2692-532X DOI: 10.33552/AUN.2020.01.000508 Annals of Urology & Nephrology Mini Review Copyright © All rights are reserved by David Tovbin Hypercapnia in Hemodialysis (HD) David Tovbin* Department of Nephrology, Emek Medical Center, Israel *Corresponding author: David Tovbin, Department of Nephrology, Emek Medical Received Date: February 04, 2019 Center, Afula, Israel. Published Date: February 14, 2019 Introduction 2 case reports and in our experience with similar patients, BiPAP Acute intra-dialytic exacerbation of hypercapnia in hemodialysis prevented intra-dialytic exacerbation of hypercapnia and possibly (HD) patient has been initially reported 18 years ago [1]. Subsequent respiratory arrest [1,2]. In recent years, new interest was raised similar case was reported few years later [2]. Common features of to HD dialysate bicarbonate concentration. After standardizing to both patients were morbid obesity, a previously stable HD sessions and an acute respiratory infection at time of hypercapnia [1,2]. HD pre-dialysis serum bicarbonate level was recommended as >22 patients with decreased ventilation reserve, due to morbid obesity inflammation malnutrition complex and comorbidities midweek mEq/L [11]. As higher dialysate bicarbonate concentration became with or without obstructive sleep apnea (OSA) and/or obesity more prevalent, a large observation cohort study demonstrated hypoventilation syndrome (OHS) as well as chronic obstructive that high dialysate bicarbonate concentration was associated pulmonary disease (COPD), are at increased risk. COPD is common with worse outcome especially in the more acidotic patients among HD patients but frequently under-diagnosed [3]. Most [12]. However, still not enough attention is paid to HD dialysate COPD patients do well during HD with only mild- moderate pCO2 bicarbonate in the increasing number of patients with impaired increases and slightly decreased pH as compared to non-COPD ventilation, and to their risk of intra-dialytic exacerbation of chronic HD patients [2,4]. -
Appendix A: Codes Used to Define Principal Diagnosis of COVID-19, Sepsis, Or Respiratory Disease
Appendix A: Codes used to define principal diagnosis of COVID-19, sepsis, or respiratory disease ICD-10 code Description N J21.9 'Acute bronchiolitis, unspecified' 1 J80 'Acute respiratory distress syndrome' 2 J96.01 'Acute respiratory failure with hypoxia' 15 J06.9 'Acute upper respiratory infection, unspecified' 7 U07.1 'COVID-19' 1998 J44.1 'Chronic obstructive pulmonary disease with (acute) exacerbation' 1 R05 'Cough' 1 O99.52 'Diseases of the respiratory system complicating childbirth' 3 O99.512 'Diseases of the respiratory system complicating pregnancy, second trimester' 1 J45.41 'Moderate persistent asthma with (acute) exacerbation' 2 B97.29 'Other coronavirus as the cause of diseases classified elsewhere' 33 J98.8 'Other specified respiratory disorders' 16 A41.89 'Other specified sepsis' 1547 J12.89 'Other viral pneumonia' 222 J12.81 'Pneumonia due to SARS-associated coronavirus' 2 J18.9 'Pneumonia, unspecified organism' 8 R09.2 'Respiratory arrest' 1 J96.91 'Respiratory failure, unspecified with hypoxia' 1 A41.9 'Sepsis, unspecified organism' 155 R06.02 'Shortness of breath' 1 J22 'Unspecified acute lower respiratory infection' 4 J12.9 'Viral pneumonia, unspecified' 6 Appendix B: Average marginal effect by month, main analysis and sensitivity analyses Appendix C: Unadjusted mortality rate over time, by age group Appendix D: Results restricted to COVID-19, sepsis, or respiratory disease Any chronic Adjusted mortality Standardized Average marginal Age, median Male, Mortality, Month N condition, (95% Poisson limits) mortality ratio -
Initial Capnography Values and Resuscitation Outcomes of Patients Assisted by Basic Life Support Units in First Instance
Submitted: 09 December, 2020 Accepted: 05 February, 2021 Published: 08 July, 2021 DOI:10.22514/sv.2021.099 ORIGINALRESEARCH Initial capnography values and resuscitation outcomes of patients assisted by basic life support units in first instance; descriptive prospective study Francisco José Cereceda-Sánchez1;*, Jaume Ponce-Taylor1, Pedro Montero-París1, Iñaki Unzaga-Ercilla1, Natalia Martinez-Cuellar1, Jesús Molina-Mula2 1SAMU 061 Baleares, C/Illes Balears sn. Abstract Palma de Mallorca, 07014, Spain Introduction: Understanding the key factors which affect out hospital cardiac arrest 2Phd Department of Nursing and Physiotherapy University of Balearic (OHCA) outcomes is essential in order to promote patient treatment. The main Islands, Ctra. De Valldemossa, km 7,5 objective of this research was to describe the correlations between the capnographic Palma de Mallorca (Islas Baleares), values obtained during the first minute of monitoring on cardiopulmonary resuscitation, 07122, Spain assisted by basic life-support units, with the results as return of spontaneous circulation *Correspondence (ROSC) and alive hospital admission. The secondary objectives were to describe the [email protected] sociodemographic characteristics of the patients assisted, and to analyze any correlations (Francisco José Cereceda-Sánchez) between receiving basic life-support units and/or defibrillation prior to the arrival of basic life-support units, and the results of the cardiopulmonary resuscitation maneuvers. Methods: A prospective, descriptive, observational study of adult non-traumatic out hospital cardiac arrest patients was conducted. The patients were initially assisted by basic life-support units on the island of Mallorca, with one minute of initial capnography monitoring. Results: From July 2018 to March 2020, fifty-nine patients meeting the inclusion criteria were assisted, 76% were men and their mean age was 64.45 (15.07) years old. -
NYS CFR Protocols
New York State Department of Health Bureau of Emergency Medical Services Statewide Basic Life Support Adult & Pediatric Treatment Protocols Certified First Responder 2003 = Preface and Acknowledgments The 2003 New York State (NYS) Statewide Basic Life Support Adult & Pediatric Treatment Protocols for the Certified First Responder (CFR) includes revisions to match the current New York State CFR course curricula. These 2003 statewide protocols also include de- emphasizing the use of CUPS. CUPS is no longer required to be taught in NYS Emergency Medical Services (EMS) Courses and is not tested in Practical Skills Examinations or State Written Certification Examinations. We would like to acknowledge the members of the New York State EMS Council’s Medical Standards Committee for the time and effort given to developing this set of protocols. In addition, we would like to recognize the efforts of the Regional Emergency Medical Advisory Committees (REMACS) for their input and review. Mark Henry, MD, FACEP Medical Director Edward Wronski, Director State Emergency Medical Advisory Committee Bureau of Emergency Medical Services NYS CFR Basic Life Support Protocols NYS CFR Basic Life Support Protocols Introduction The 2003 NYS Statewide Basic Life Support Adult and Pediatric Treatment Protocols designed by the Bureau of Emergency Medical Services of the New York State Department of Health and the New York State Emergency Medical Services Council. These protocols have been reviewed and approved by the New York State Emergency Medical Advisory Committee (SEMAC) and the New York State Emergency Medical Services Council (SEMSCO). The protocols reflect the current minimally acceptable statewide treatment standards for adult and pediatric basic life support (BLS) used by the Certified First Responder (CFR). -
AC01 Page 1 of 2 Effective Jan
Contra Costa County Emergency Medical Services Cardiac Arrest History Signs and Symptoms Differential • Code status (DNR or POLST) • Unresponsive • Medical vs. trauma • Events leading to arrest • Apneic • VF vs. pulseless VT • Estimated downtime • Pulseless • Asystole • History of current illness • PEA • Past medical history • Primary cardiac event vs. respiratory arrest or drug • Medications overdose • Existence of terminal illness Decomposition AT ANY TIME Rigor mortis Criteria for death/no resuscitation Dependent lividity Yes Review DNR/POLST form Return of spontaneous circulation Injury incompatible with life or traumatic arrest with No asystole Follow FP09 ‐ Cardiac Arrest Go to Post Resuscitation TG Do not begin resuscitation Management Follow Policy 1004 – Determination of Death Begin continuous chest compressions Push hard (> 2 inches) and fast (100‐120/min) For suspected Excited Use metronome to ensure proper rate Delirium patients E Change compressors every 2 minutes (Limit changes/pulse checks to < 5 seconds) Consider fluid bolus early and Apply mechanical compression device contact Base Hospital for if available Sodium Bicarbonate order No ALS available? Yes E Apply AED if available Cardiac monitor P EtCO2 monitoring Shockable rhythm? Yes No Shockable rhythm? No Yes Continue CPR Automated defibrillation E 5 cycles over 2 minutes Follow Follow VF/VT Repeat and assess Asystole/PEA E Continue CPR and Airway TG and Airway TG 5 cycles over 2 minutes as indicated Repeat and assess as indicated Follow Airway TG Follow Airway TG Notify receiving facility. Contact Base Hospital for medical direction, as needed. Treatment Guideline AC01 Page 1 of 2 Effective Jan. 2016Effective Jan. 2020 Contra Costa County Emergency Medical Services Cardiac Arrest Pearls • Efforts should be directed at high quality and continuous chest compressions with limited interruptions. -
Basic Life Support Patient Care Standards
This document contains both information and navigation buttons. To read information, use the Down Arrow from a form field. Basic Life Support Patient Care Standards Version 3.0.1 Comes into force December 11, 2017 Emergency Health Services Branch Ministry of Health and Long-Term Care To all users of this publication: The information contained in the Standards has been carefully compiled and is believed to be accurate at date of publication. For further information on the Basic Life Support Patient Care Standards, please contact: Emergency Health Services Branch Ministry of Health and Long-Term Care 5700 Yonge Street, 6th Floor Toronto, ON M2M 4K5 416-327-7900 © Queen’s Printer for Ontario, 2016 Document Control Version Date of Issue Comes into Force Brief Description of Change Number Date 3.0 July 2016 N/A (amended prior Full update. See accompanying training to in force date) bulletin for further details 3.0.1 November 2016 December 11, 2017 Update to Paramedic Prompt Card for Acute Stroke Protocol: Contraindication changed from “CTAS Level 2” to “CTAS Level 1”. Table of Contents Preamble ............................................................................................................................. 7 Preface............................................................................................................................................. 1 Definitions....................................................................................................................................... 1 Introduction .................................................................................................................................... -
PALS Science Summary Table
2020 PALS Science Summary Table This table compares 2015 science with 2020 science, providing a quick reference to what has changed and what is new in the science of pediatric advanced life support. PALS topic 2015 2020 Pediatric Chain of 5 links for both chains (IHCA and OHCA Chains 6 links for both chains (IHCA and OHCA Chains Survival of Survival) of Survival); added a Recovery link to the end of both chains Pediatric • Rescue breathing: If there is a palpable • Rescue breathing: For infants and children Ventilation Rate pulse 60/min or greater but there is with a pulse but absent or inadequate inadequate breathing, give rescue breaths respiratory effort, give 1 breath every 2 to 3 at a rate of about 12 to 20/min (1 breath seconds (20-30 breaths/min). every 3-5 seconds) until spontaneous • During CPR with an advanced airway: target breathing resumes. a respiratory rate range of 1 breath every 2 • During CPR with an advanced airway: If the to 3 seconds (20-30 breaths/min), infant or child is intubated, ventilate at a accounting for age and clinical condition. rate of about 1 breath every 6 seconds Rates exceeding these recommendations (10/min) without interrupting chest may compromise hemodynamics. compressions. Cuffed Both cuffed and uncuffed ETTs are acceptable Cuffed ETTs can be used over uncuffed ETTs Endotracheal for intubating infants and children. In certain for intubating infants and children. When a Tubes circumstances (eg, poor lung compliance, high cuffed ETT is used, attention should be paid to airway resistance, or a large glottic air leak), a ETT size, position, and cuff inflation pressure cuffed ETT may be preferable to an uncuffed (usually less than 20-25 cm H2O). -
CPR/AED for Professional Rescuers and Health Care Providers HANDBOOK
CPR/AED for Professional Rescuers and Health Care Providers HANDBOOK American Red Cross CPR/AED for Professional Rescuers and Health Care Providers HANDBOOK This CPR/AED for Professional Rescuers and Health Care Providers Handbook is part of the American Red Cross CPR/AED for Professional Rescuers and Health Care Providers program. By itself, it does not constitute complete and comprehensive training. Visit redcross.org to learn more about this program. The emergency care procedures outlined in this book refl ect the standard of knowledge and accepted emergency practices in the United States at the time this book was published. It is the reader’s responsibility to stay informed of changes in emergency care procedures. PLEASE READ THE FOLLOWING TERMS AND CONDITIONS BEFORE AGREEING TO ACCESS AND DOWNLOAD THE AMERICAN RED CROSS MATERIALS. BY DOWNLOADING THE MATERIALS, YOU HEREBY AGREE TO BE BOUND BY THE TERMS AND CONDITIONS. The downloadable electronic materials, including all content, graphics, images and logos, are copyrighted by and the exclusive property of The American National Red Cross (“Red Cross”). Unless otherwise indicated in writing by the Red Cross, the Red Cross grants you (“recipient”) the limited right to download, print, photocopy and use the electronic materials, subject to the following restrictions: ■ The recipient is prohibited from selling electronic versions of the materials. ■ The recipient is prohibited from revising, altering, adapting or modifying the materials. ■ The recipient is prohibited from creating any derivative works incorporating, in part or in whole, the content of the materials. ■ The recipient is prohibited from downloading the materials and putting them on their own website without Red Cross permission. -
Comparison of Preoperative and Postoperative Antioxidant Levels in Patients with Adenotonsillar Hypertrophy
Eur J Rhinol Allergy 2020; 3(2): 34-8 Original Article Comparison of Preoperative and Postoperative Antioxidant Levels in Patients with Adenotonsillar Hypertrophy Adnan Ekinci1 , Hakan Dağıstan2 , Ahmet Aksoy3 , Halil Ekinci4 1Department of Otorhinolaryngology, Hitit University School of Medicine, Çorum, Turkey 2Department of Otorhinolaryngology, Bozok University School of Medicine, Yozgat, Turkey 3Department of Otorhinolaryngology, Ömer Halisdemir University School of Medicine, Niğde, Turkey 4Department of Infectious Disease and Clinic Microbiology, Yıldırım Beyazıt University School of Medicine, Ankara, Turkey Abstract Objective: This study aimed to compare the serum oxidative stress levels of patients with adenotonsillar hypertrophy (ATH) with those of controls and to investigate the effects of adenotonsillectomy on the oxidative stress levels. Material and Methods: Thirty healthy children (mean age, 6 years) and 30 patients with ATH (mean age, 7 years) aged 2-12 years were included in the study. Serum total oxidant status (TOS), total antioxidant status (TAS), oxidative stress index (OSI), and paraoxonase (PON) levels were compared between the patient and control groups. The preo- perative and postoperative levels were also compared within the patient group. Results: The TOS and OSI levels were significantly higher in the patient group than in the control group (p=0.007 and p=0.027, respectively). There was no significant difference between the patient and control groups in terms of the TAS and PON levels (p=0.399 and p=0.237, respectively). The TOS and OSI levels in the patient group were significantly higher in the preoperative than in the postoperative period (p=0.005 and p=0.023, respectively), whereas there were no significant differences in the TAS and PON levels between the preoperative and postoperative period (p=0.192 and p=0.262, respectively). -
Basic Life Support 1 1.2 Advanced Life Support 5
RESUSCITATION Edited by Conor Deasy SECTION 1 1.1 Basic life support 1 1.2 Advanced life support 5 1.1 Basic life support Sameer A. Pathan compressions and rapid defibrillation, which ESSENTIALS significantly improves the chances of survival from ventricular fibrillation (VF) in OHCA.1–3 CPR 1 A patient with sudden out-of-hospital cardiac arrest (OHCA) requires activation of plus defibrillation within 3 to 5 minutes of collapse the Chain of Survival, which includes early high-quality cardiopulmonary resuscitation following VF in OHCA can produce survival rates (CPR) and early defibrillation. The emergency medical dispatcher plays a crucial and as high as 49% to 75%.5–7 Each minute of delay central role in this process. before defibrillation reduces the probability of survival to hospital discharge by 10% to 12%.2,3 2 Over telephone, the dispatcher should provide instructions for external chest The final links in the Chain of Survival are effec- compressions only CPR to any adult caller wishing to aid a victim of OHCA. This approach tive ALS and integrated post-resuscitation care has shown absolute survival benefit and improved rates of bystander CPR. targeted at optimizing and preserving cardiac 8 3 In the out-of-hospital setting, bystanders should deliver chest compressions to any and cerebral function. unresponsive patient with abnormal or absent breathing. Bystanders who are trained, able, and willing to give rescue breaths should do so without compromising the main focus on high quality of chest compressions. Development of protocols Any guidelines for BLS must be evidence based 4 Early defibrillation should be regarded as part of Basic Life Support (BLS) training, as and consistent across a wide range of providers. -
Part 2: Adult Basic Life Support
Resuscitation (2005) 67, 187—201 Part 2: Adult basic life support International Liaison Committee on Resuscitation The consensus conference addressed many decrease interruptions in compressions.During questions related to the performance of basic two-rescuer CPR of the infant or child, health- life support.These have been grouped into (1) care providers should use a 15:2 compression— epidemiology and recognition of cardiac arrest, ventilation ratio. (2) airway and ventilation, (3) chest compression, • During CPR for a patient with an advanced air- (4) compression—ventilation sequence, (5) postre- way (i.e. tracheal tube, Combitube, laryngeal suscitation positioning, (6) special circumstances, mask airway [LMA]) in place, deliver ventilations (7) emergency medical services (EMS) system, at a rate of 8—10 per min for infants (excepting and (8) risks to the victim and rescuer.Defibril- neonates), children and adults, without pausing lation is discussed separately in Part 3 because during chest compressions to deliver the ventila- it is both a basic and an advanced life support tions. skill. There have been several important advances in the science of resuscitation since the last ILCOR Epidemiology and recognition of cardiac review in 2000.The following is a summary of the arrest evidence-based recommendations for the perfor- mance of basic life support: Many people die prematurely from sudden cardiac arrest (SCA), often associated with coronary heart • Rescuers begin CPR if the victim is unconscious, disease.The following section summarises the bur- not moving, and not breathing (ignoring occa- den, risk factors, and potential interventions to sional gasps). reduce the risk. • For mouth-to-mouth ventilation or for bag-valve- mask ventilation with room air or oxygen, the res- Epidemiology cuer should deliver each breath in 1 s and should see visible chest rise.