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Author's reply

Published online by Cambridge University Press:  15 July 2019

E J Damrose
Affiliation:
Department of Otolaryngology/Head and Neck Surgery, Stanford University Medical Center, California, USA
L Manson
Affiliation:
Department of Otolaryngology/Head and Neck Surgery, Stanford University Medical Center, California, USA
V Nekhendzy
Affiliation:
Department of Anesthesiology, Stanford University Medical Center, California, USA
J Collins
Affiliation:
Department of Anesthesiology, Stanford University Medical Center, California, USA
R Campbell
Affiliation:
Department of Otolaryngology/Head and Neck Surgery, Stanford University Medical Center, California, USA

Abstract

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Copyright
Copyright © JLO (1984) Limited, 2019 

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References

1Damrose, EJ, Manson, L, Nekhendzy, V, Collins, J, Campbell, R. Management of subglottic stenosis in pregnancy using advanced apnoeic ventilatory techniques. J Laryngol Otol 2019;133:XXXXXX10.1017/S0022215119000690Google Scholar
2Parke, RL, Eccleston, ML, McGuinness, SP. The effects of flow on airway pressure during nasal high-flow oxygen therapy. Respir Care 2011;56:1151–510.4187/respcare.01106Google Scholar
3Parke, RL, McGuinness, SP. Pressures delivered by nasal high flow oxygen during all phases of the respiratory cycle. Respir Care 2013;58:1621–410.4187/respcare.02358Google Scholar
4Parke, RL, Bloch, A, McGuinness, SP. Effect of very-high-flow nasal therapy on airway pressure and end-expiratory lung impedance in healthy volunteers. Respir Care 2015;60:1397–40310.4187/respcare.04028Google Scholar
5Spoletini, G, Alotaibi, M, Blasi, F, Hill, NS. Heated humidified high-flow nasal oxygen in adults: mechanisms of action and clinical implications. Chest 2015;148:253–6110.1378/chest.14-2871Google Scholar
6Nishimura, M. High-flow nasal cannula oxygen therapy in adults: physiological benefits, indication, clinical benefits, and adverse effects. Respir Care 2016;61:529–4110.4187/respcare.04577Google Scholar
7Van Hove, SC, Storey, J, Adams, C, Dey, K, Geoghegan, PH, Kabaliuk, N et al. An experimental and numerical investigation of CO2 distribution in the upper airways during nasal high flow therapy. Ann Biomed Eng 2016;44:3007–1910.1007/s10439-016-1604-8Google Scholar
8Hermez, LA, Spence, CJ, Payton, MJ, Nouraei, SAR, Patel, A, Barnes, TH. A physiological study to determine the mechanism of carbon dioxide clearance during apnoea when using transnasal humidified rapid insufflation ventilatory exchange (THRIVE). Anaesthesia 2019;74:441–910.1111/anae.14541Google Scholar
9Patel, A, Nouraei, SA. Transnasal humidified rapid-insufflation ventilatory exchange (THRIVE): a physiological method of increasing apnoea time in patients with difficult airways. Anaesthesia 2015;70:323–910.1111/anae.12923Google Scholar
10Gustafsson, IM, Lodenius, A, Tunelli, J, Ullman, J, Jonsson Fagerlund, M. Apnoeic oxygenation in adults under general anaesthesia using Transnasal Humidified Rapid-Insufflation Ventilatory Exchange (THRIVE) - a physiological study. Br J Anaesth 2017;118:610–1710.1093/bja/aex036Google Scholar