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Respiratory impedance measured using impulse oscillometry in a healthy urban population

This study derives normative prediction equations for respiratory impedance in a healthy asymptomatic urban population using an impulse oscillation system (IOS). In addition, this study uses body mass index (BMI) in the equations to describe the effect of obesity on respiratory impedance. Data from...

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Autores principales: Berger, Kenneth I., Wohlleber, Margaret, Goldring, Roberta M., Reibman, Joan, Farfel, Mark R., Friedman, Stephen M., Oppenheimer, Beno W., Stellman, Steven D., Cone, James E., Shao, Yongzhao
Formato: Online Artículo Texto
Lenguaje:English
Publicado: European Respiratory Society 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8005688/
https://www.ncbi.nlm.nih.gov/pubmed/33816605
http://dx.doi.org/10.1183/23120541.00560-2020
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author Berger, Kenneth I.
Wohlleber, Margaret
Goldring, Roberta M.
Reibman, Joan
Farfel, Mark R.
Friedman, Stephen M.
Oppenheimer, Beno W.
Stellman, Steven D.
Cone, James E.
Shao, Yongzhao
author_facet Berger, Kenneth I.
Wohlleber, Margaret
Goldring, Roberta M.
Reibman, Joan
Farfel, Mark R.
Friedman, Stephen M.
Oppenheimer, Beno W.
Stellman, Steven D.
Cone, James E.
Shao, Yongzhao
author_sort Berger, Kenneth I.
collection PubMed
description This study derives normative prediction equations for respiratory impedance in a healthy asymptomatic urban population using an impulse oscillation system (IOS). In addition, this study uses body mass index (BMI) in the equations to describe the effect of obesity on respiratory impedance. Data from an urban population comprising 472 healthy asymptomatic subjects that resided or worked in lower Manhattan, New York City were retrospectively analysed. This population was the control group from a previously completed case–control study of the health effects of exposure to World Trade Center dust. Since all subjects underwent spirometry and oscillometry, these previously collected data allowed a unique opportunity to derive normative prediction equations for oscillometry in an urban, lifetime non-smoking, asymptomatic population without underlying respiratory disease. Normative prediction equations for men and women were successfully developed for a broad range of respiratory oscillometry variables with narrow confidence bands. Models that used BMI as an independent predictor of oscillometry variables (in addition to age and height) demonstrated equivalent or better fit when compared with models that used weight. With increasing BMI, resistance and reactance increased compatible with lung and airway compression from mass loading. This study represents the largest cohort of healthy urban subjects assessed with an IOS device. Normative prediction equations were derived that should facilitate application of IOS in the clinical setting. In addition, the data suggest that modelling of lung function may be best performed using height and BMI as independent variables rather than the traditional approach of using height and weight.
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spelling pubmed-80056882021-04-02 Respiratory impedance measured using impulse oscillometry in a healthy urban population Berger, Kenneth I. Wohlleber, Margaret Goldring, Roberta M. Reibman, Joan Farfel, Mark R. Friedman, Stephen M. Oppenheimer, Beno W. Stellman, Steven D. Cone, James E. Shao, Yongzhao ERJ Open Res Original Articles This study derives normative prediction equations for respiratory impedance in a healthy asymptomatic urban population using an impulse oscillation system (IOS). In addition, this study uses body mass index (BMI) in the equations to describe the effect of obesity on respiratory impedance. Data from an urban population comprising 472 healthy asymptomatic subjects that resided or worked in lower Manhattan, New York City were retrospectively analysed. This population was the control group from a previously completed case–control study of the health effects of exposure to World Trade Center dust. Since all subjects underwent spirometry and oscillometry, these previously collected data allowed a unique opportunity to derive normative prediction equations for oscillometry in an urban, lifetime non-smoking, asymptomatic population without underlying respiratory disease. Normative prediction equations for men and women were successfully developed for a broad range of respiratory oscillometry variables with narrow confidence bands. Models that used BMI as an independent predictor of oscillometry variables (in addition to age and height) demonstrated equivalent or better fit when compared with models that used weight. With increasing BMI, resistance and reactance increased compatible with lung and airway compression from mass loading. This study represents the largest cohort of healthy urban subjects assessed with an IOS device. Normative prediction equations were derived that should facilitate application of IOS in the clinical setting. In addition, the data suggest that modelling of lung function may be best performed using height and BMI as independent variables rather than the traditional approach of using height and weight. European Respiratory Society 2021-03-29 /pmc/articles/PMC8005688/ /pubmed/33816605 http://dx.doi.org/10.1183/23120541.00560-2020 Text en Copyright ©ERS 2021 http://creativecommons.org/licenses/by-nc/4.0/This article is open access and distributed under the terms of the Creative Commons Attribution Non-Commercial Licence 4.0.
spellingShingle Original Articles
Berger, Kenneth I.
Wohlleber, Margaret
Goldring, Roberta M.
Reibman, Joan
Farfel, Mark R.
Friedman, Stephen M.
Oppenheimer, Beno W.
Stellman, Steven D.
Cone, James E.
Shao, Yongzhao
Respiratory impedance measured using impulse oscillometry in a healthy urban population
title Respiratory impedance measured using impulse oscillometry in a healthy urban population
title_full Respiratory impedance measured using impulse oscillometry in a healthy urban population
title_fullStr Respiratory impedance measured using impulse oscillometry in a healthy urban population
title_full_unstemmed Respiratory impedance measured using impulse oscillometry in a healthy urban population
title_short Respiratory impedance measured using impulse oscillometry in a healthy urban population
title_sort respiratory impedance measured using impulse oscillometry in a healthy urban population
topic Original Articles
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8005688/
https://www.ncbi.nlm.nih.gov/pubmed/33816605
http://dx.doi.org/10.1183/23120541.00560-2020
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