Home mechanical ventilation: back to basics
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Over recent decades, the use of home mechanical ventilation (HMV) has steadily increased worldwide, with varying prevalence in different countries. The key indication for HMV is chronic respiratory failure with alveolar hypoventilation (e.g., neuromuscular and chest wall disease, obstructive airway diseases, and obesity-related respiratory failure). Most modern home ventilators are pressure-targeted and have sophisticated modes, alarms, and graphics, thereby facilitating optimization of the ventilator settings. However, different ventilators have different algorithms for tidal volume estimation and leak compensation, and there are also several different circuit configurations. Hence, a basic understanding of the fundamentals of HMV is of paramount importance to healthcare workers taking care of patients with HMV. When choosing a home ventilator, they should take into account many factors, including the current condition and prognosis of the primary disease, the patient’s daily performance status, time (hr/day) needed for ventilator support, family support, and financial costs. In this review, to help readers understand the basic concepts of HMV use, we describe the indications for HMV and the factors that influence successful delivery, including interface, circuits, ventilator accessories, and the ventilator itself.
Abstract
Over recent decades, the use of home mechanical ventilation (HMV) has steadily increased worldwide, with varying prevalence in different countries. The key indication for HMV is chronic respiratory failure with alveolar hypoventilation (e.g., neuromuscular and chest wall disease, obstructive airway diseases, and obesity-related respiratory failure). Most modern home ventilators are pressure-targeted and have sophisticated modes, alarms, and graphics, thereby facilitating optimization of the ventilator settings. However, different ventilators have different algorithms for tidal volume estimation and leak compensation, and there are also several different circuit configurations. Hence, a basic understanding of the fundamentals of HMV is of paramount importance to healthcare workers taking care of patients with HMV. When choosing a home ventilator, they should take into account many factors, including the current condition and prognosis of the primary disease, the patient’s daily performance status, time (hr/day) needed for ventilator support, family support, and financial costs. In this review, to help readers understand the basic concepts of HMV use, we describe the indications for HMV and the factors that influence successful delivery, including interface, circuits, ventilator accessories, and the ventilator itself.
참고문헌 (55)
- Lloyd-Owen SJ, "Patterns of home mechanical ventilation use in Europe : results from the Eurovent survey", Eur Respir J, 25, pp.1025~1031 (2005)
- MacIntyre EJ, "Clinical outcomes associated with home mechanical ventilation : a systematic review", Can Respir J, 2016, pp.6547180~ (2016)
- Garner DJ, "Home mechanical ventilation in Australia and New Zealand", Eur Respir J, 41, pp.39~45 (2013)
- Kim HI, "Home mechanical ventilation use in South Korea based on national health insurance service data", Respir Care, 64, pp.528~535 (2019)
- Hind M, "AJRCCM: 100-year anniversary. homeward bound: a centenary of home mechanical ventilation", Am J Respir Crit Care Med, 195, pp.1140~1149 (2017)
- Simonds AK, "Home mechanical ventilation : an overview", Ann Am Thorac Soc, 13, pp.2035~2044 (2016)
- Kacmarek RM, "Principles and practice of mechanical ventilation", pp.97~127 (2006), McGraw Hill
- Battisti A, "Performance characteristics of 10 home mechanical ventilators in pressure-support mode : a comparative bench study", Chest, 127, pp.1784~1792 (2005)
- Vitacca M, "Comparison of five bilevel pressure ventilators in patients with chronic ventilatory failure : a physiologic study", Chest, 122, pp.2105~2114 (2002)
- Kieny P, "Evolution of life expectancy of patients with Duchenne muscular dystrophy at AFM Yolaine de Kepper centre between 1981 and 2011", Ann Phys Rehabil Med, 56, pp.443~454 (2013)
- Chatwin M, "Long term non-invasive ventilation in children : impact on survival and transition to adult care", PLoS One, 10, pp.e0125839~ (2015)
- [URL]
- Bourke SC, "Effects of non-invasive ventilation on survival and quality of life in patients with amyotrophic lateral sclerosis : a randomised controlled trial", Lancet Neurol, 5, pp.140~147 (2006)
- Gruis KL, "Predictors of noninvasive ventilation tolerance in patients with amyotrophic lateral sclerosis", Muscle Nerve, 32, pp.808~811 (2005)
- Farrero E, "Survival in amyotrophic lateral sclerosis with home mechanical ventilation : the impact of systematic respiratory assessment and bulbar involvement", Chest, 127, pp.2132~2138 (2005)
- Brochard L, "Reversal of acute exacerbations of chronic obstructive lung disease by inspiratory assistance with a face mask", N Engl J Med, 323, pp.1523~1530 (1990)
- Meduri GU, "Noninvasive face mask ventilation in patients with acute respiratory failure", Chest, 95, pp.865~870 (1989)
- Plant PK, "Early use of non-invasive ventilation for acute exacerbations of chronic obstructive pulmonary disease on general respiratory wards : a multicentre randomised controlled trial", Lancet, 355, pp.1931~1935 (2000)
- Strumpf DA, "Nocturnal positive-pressure ventilation via nasal mask in patients with severe chronic obstructive pulmonary disease", Am Rev Respir Dis, 144, pp.1234~1239 (1991)
- Köhnlein T, "Non-invasive positive pressure ventilation for the treatment of severe stable chronic obstructive pulmonary disease : a prospective, multicentre, randomised, controlled clinical trial", Lancet Respir Med, 2, pp.698~705 (2014)
- Murphy PB, "Effect of home noninvasive ventilation with oxygen therapy vs oxygen therapy alone on hospital readmission or death after an acute COPD exacerbation : a randomized clinical trial", JAMA, 317, pp.2177~2186 (2017)
- Murphy PB, "Non-invasive ventilation for obese patients with chronic respiratory failure: are two pressures always better than one?", Respirology, 24, pp.952~961 (2019)
- Hess DR, "Respiratory care: principles and practice" (2012), Jones & Bartlett Learning
- Gramlich T, "Mechanical ventilation:physiological and clinical applications", pp.417~440 (2006), Mosby Elsevier
- Ellis ER, "Treatment of respiratory failure during sleep in patients with neuromuscular disease : positive-pressure ventilation through a nose mask", Am Rev Respir Dis, 135, pp.148~152 (1987)
- Ellis ER, "Treatment of alveolar hypoventilation in a six-year-old girl with intermittent positive pressure ventilation through a nose mask", Am Rev Respir Dis, 136, pp.188~191 (1987)
- McEvoy RD, "Treatment of obstructive sleep apnea syndrome with nasal continuous positive airway pressure", Sleep, 7, pp.313~325 (1984)
- Sullivan CE, "Remission of severe obesity-hypoventilation syndrome after short-term treatment during sleep with nasal continuous positive airway pressure", Am Rev Respir Dis, 128, pp.177~181 (1983)
- Sullivan CE, "Reversal of obstructive sleep apnoea by continuous positive airway pressure applied through the nares", Lancet, 1, pp.862~865 (1981)
- Sanborn WG, "Microprocessor-based mechanical ventilation", Respir Care, 38, pp.72~109 (1993)
- Richard JC, "Bench testing of pressure support ventilation with three different generations of ventilators", Intensive Care Med, 28, pp.1049~1057 (2002)
- Criner GJ, "Efficacy and compliance with noninvasive positive pressure ventilation in patients with chronic respiratory failure", Chest, 116, pp.667~675 (1999)
- Rabec C, "Ventilator modes and settings during noninvasive ventilation : effects on respiratory events and implications for their identification", Thorax, 66, pp.170~178 (2011)
- Storre JH, "Oxygen supplementation in noninvasive home mechanical ventilation : the crucial roles of CO2 exhalation systems and leakages", Respir Care, 59, pp.113~120 (2014)
- Murate T, "Antipurified-protein-derivative antibody in tuberculous pleural effusions", Chest, 97, pp.670~673 (1990)
- Carlucci A, "The configuration of bi-level ventilator circuits may affect compensation for non-intentional leaks during volume-targeted ventilation", Intensive Care Med, 39, pp.59~65 (2013)
- Khirani S, "Harms of unintentional leaks during volume targeted pressure support ventilation", Respir Med, 107, pp.1021~1029 (2013)
- Borel JC, "Intentional leaks in industrial masks have a significant impact on efficacy of bilevel noninvasive ventilation : a bench test study", Chest, 135, pp.669~677 (2009)
- Fernandez Alvarez R, "Home mechanical ventilation through mask : monitoring leakage and nocturnal oxygenation at home", Respiration, 85, pp.132~136 (2013)
- Miyoshi E, "Effects of gas leak on triggering function, humidification, and inspiratory oxygen fraction during noninvasive positive airway pressure ventilation", Chest, 128, pp.3691~3698 (2005)
- Contal O, "Monitoring of noninvasive ventilation by built-in software of home bilevel ventilators : a bench study", Chest, 141, pp.469~476 (2012)
- Luján M, "Basic concepts for tidal volume and leakage estimation in non-invasive ventilation", Turk Thorac J, 20, pp.140~146 (2019)
- Luján M, "Effect of leak and breathing pattern on the accuracy of tidal volume estimation by commercial home ventilators : a bench study", Respir Care, 58, pp.770~777 (2013)
- Chatburn RL, "Principles and practice of mechanical ventilation", pp.37~52 (2006), McGraw Hill
- Hess DR, "Ventilator waveforms and the physiology of pressure support ventilation", Respir Care, 50, pp.166~186 (2005)
- Calderini E, "Patient-ventilator asynchrony during noninvasive ventilation : the role of expiratory trigger", Intensive Care Med, 25, pp.662~667 (1999)
- Johnson KG, "Treatment of sleep-disordered breathing with positive airway pressure devices : technology update", Med Devices(Auckl), 8, pp.425~437 (2015)
- Ferguson GT, "CO2 rebreathing during BiPAP ventilatory assistance", Am J Respir Crit Care Med, 151, pp.1126~1135 (1995)
- Lofaso F, "Evaluation of carbon dioxide rebreathing during pressure support ventilation with airway management system(BiPAP)devices", Chest, 108, pp.772~778 (1995)
- Blakeman TC, "Evaluation of 4 new generation portable ventilators", Respir Care, 58, pp.264~272 (2013)
- Mandal S, "External heated humidification during non-invasive ventilation set up : results from a pilot cross-over clinical trial", Eur Respir J, 55, pp.1901126~ (2020)
- Blakeman TC, "Bench evaluation of 7 home-care ventilators", Respir Care, 56, pp.1791~1798 (2011)
- Make BJ, "Mechanical ventilation beyond the intensive care unit. Report of a consensus conference of the American College of Chest Physicians", Chest, 113, pp.289S~344S (1998)
- Senent C, "Home mechanical ventilators : the point of view of the patients", J Eval Clin Pract, 16, pp.832~834 (2010)
- Muñoz-Bonet JI, "Usefulness of telemedicine for home ventilator-dependent children", J Telemed Telecare, 26, pp.207~215 (2020)
