Mechanical Ventilation During Resuscitation: How Manual Chest Compressions Affect a Ventilator's Function

被引:13
|
作者
Speer, Tillmann [1 ]
Dersch, Wolfgang [1 ]
Kleine, Bjoern [1 ]
Neuhaus, Christian [2 ]
Kill, Clemens [1 ]
机构
[1] Philipps Univ, Fac Med, Dept Emergency Med, Marburg, Germany
[2] WEINMANN Emergency Med Technol GmbH Co KG, Hamburg, Germany
关键词
Cardiopulmonary resuscitation; CCSV; Chest compressions; Chest compression synchronized ventilation; Pulmonary; Respiratory; Simulation model; Ventilation; POSITIVE-PRESSURE VENTILATION; CARDIOPULMONARY-RESUSCITATION; PORCINE MODEL; HYPERVENTILATION; SURVIVAL; DEPTH; CPR;
D O I
10.1007/s12325-017-0615-7
中图分类号
R-3 [医学研究方法]; R3 [基础医学];
学科分类号
1001 ;
摘要
Guidelines for resuscitation recommend positive-pressure ventilation with a fixed ventilation rate as provided by an automated transport ventilator during cardiopulmonary resuscitation (CPR) with a secured airway. We investigated the influence of manual chest compressions (CC) on the accuracy of ventilator presets and the quality of CC with intermittent positive-pressure ventilation (IPPV), bilevel ventilation (BiLevel), and the novel ventilation mode chest compression synchronized ventilation (CCSV) in a simulation model. Ninety paramedics performed continuous CC for 2 min on a modified advanced life support mannequin with a realistic lung model. IPPV, BiLevel, and CCSV were applied in a randomized order. CCSV is a novel type of pressure-controlled ventilation with short insufflations synchronized with CC, which are stopped before decompression begins. The ventilator presets (tolerance range) were IPPV Vt = 450 (400-500) ml, PEEP = 0 hPa, f = 10/min; BiLevel Pinsp = 19 (17.1-20.9) hPa, PEEP = 5 hPa, f = 10/min; CCSV Pinsp = 60 (54-66) hPa, PEEP = 0 hPa, Tinsp = 205 ms, f = CC rate. Preset values were compared with the measured results. Values were defined as correct within a tolerance range. Quality of CC was evaluated using ERC guidelines (depth > 50 mm, CC rate 100-120/min). Median (25th/75th percentiles) IPPV V (t) = 399 (386/411) ml, BiLevel Pinsp = 22.0 (19.7/25.6) hPa, and CCSV Pinsp = 55.2 (52.6/56.7) hPa. Relative frequency of delivering correct ventilation parameters according to ventilation mode: IPPV = 40 (0/100)% vs. BiLevel = 20 (0/100)%, p = 0.37 and vs. CCSV = 71 (50/83)%, p < 0.02. Pinsp was too high in BiLevel = 80 (0/100)% vs. CCSV = 0(0/0)%, p < 0.001. CC depth: IPPV 56 (48/63) mm, BiLevel 57 (48/63) mm, CCSV 60 (52/67) mm; CC rate: IPPV 117 (105/124)/min, BiLevel 116 (107/123)/min, CCSV 117 (107/125)/min. When compared to IPPV and BiLevel, CCSV works best with preset values, without exceeding the upper pressure preset during simulated CPR. Quality of CC is not negatively affected by any of the ventilation patterns.
引用
收藏
页码:2333 / 2344
页数:12
相关论文
共 50 条
  • [41] Use of a Mechanical Ventilator with Respiratory Function Monitoring Provides More Consistent Ventilation during Simulated Neonatal Resuscitation
    Jain, Deepak
    D'Ugard, Carmen
    Aguilar, Ana
    del Moral, Teresa
    Bancalari, Eduardo
    Claure, Nelson
    NEONATOLOGY, 2020, 117 (02) : 151 - 158
  • [42] 56 Cardiopulmonary Resuscitation by Chest Compressions Versus Ventilation Plus Chest Compressions in a Pediatric Asphyxial Cardiac Arrest Animal Model
    M Botran
    J Urbano
    M J Solana
    Y Ballestero
    J López-Herce
    D Vinciguerra
    Pediatric Research, 2010, 68 : 31 - 31
  • [43] IDENTIFICATION OF DYNAMIC MECHANICAL PARAMETERS OF THE HUMAN CHEST DURING MANUAL CARDIOPULMONARY RESUSCITATION
    BANKMAN, IN
    GRUBEN, KG
    HALPERIN, HR
    POPEL, AS
    GUERCI, AD
    TSITLIK, JE
    IEEE TRANSACTIONS ON BIOMEDICAL ENGINEERING, 1990, 37 (02) : 211 - 217
  • [44] Optimizing chest compressions during delivery-room resuscitation
    Wyckoff, Myra H.
    Berg, Robert A.
    SEMINARS IN FETAL & NEONATAL MEDICINE, 2008, 13 (06): : 410 - 415
  • [45] Interruptions of chest compressions during emergency medical systems resuscitation
    Valenzuela, TD
    Kern, KB
    Clark, LL
    Berg, RA
    Berg, MD
    Berg, DD
    Hilwig, RW
    Otto, CW
    Newburn, D
    Ewy, GA
    CIRCULATION, 2005, 112 (17) : U1189 - U1189
  • [46] Interruptions of chest compressions during emergency medical systems resuscitation
    Valenzuela, TD
    Kern, KB
    Clark, LL
    Berg, RA
    Berg, MD
    Berg, DD
    Hilwig, RW
    Otto, CW
    Newburn, D
    Ewy, GA
    CIRCULATION, 2005, 112 (09) : 1259 - 1265
  • [47] Effects of Manual Rib Cage Compressions on Expiratory Flow and Mucus Clearance During Mechanical Ventilation
    Daniel Marti, Joan
    Li Bassi, Gianluigi
    Rigol, Montserrat
    Saucedo, Lina
    Tavares Ranzani, Otavio
    Esperatti, Mariano
    Luque, Nestor
    Ferrer, Miguel
    Vilaro, Jordi
    Kolobow, Theodor
    Torres, Antoni
    CRITICAL CARE MEDICINE, 2013, 41 (03) : 850 - 856
  • [48] Hemodynamics and gas exchange during chest compressions in neonatal resuscitation
    Vali, Payam
    Chandrasekharan, Praveen
    Rawat, Munmun
    Gugino, Sylvia
    Koenigsknecht, Carmon
    Helman, Justin
    Mathew, Bobby
    Berkelhamer, Sara
    Nair, Jayasree
    Wyckoff, Myra
    Lakshminrusimha, Satyan
    PLOS ONE, 2017, 12 (04):
  • [49] A pilot study of mechanical chest compressions with the LUCAS™ device in cardiopulmonary resuscitation
    Smekal, David
    Johansson, Jakob
    Huzevka, Tibor
    Rubertsson, Sten
    RESUSCITATION, 2011, 82 (06) : 702 - 706
  • [50] Chest Compressions Superimposed With Sustained Inflations Compared to Continuous Chest Compressions with Asynchronized Ventilation During Cardiopulmonary Resuscitation in Asphyxiated Pediatric Piglets - A Randomized Controlled Animal Study
    Morin, Chelsea
    Cheung, Po-Yin
    Lee, Tze Fun
    OReilly, Megan
    Schmolzer, Georg
    CIRCULATION, 2022, 146