arrow
返回

Differentiating COPD and asthma using quantitative CT imaging and machine learning

delete2022-02-24
delete17
delete
OA
AI
A
Amir Moslemi
K
Konstantina Kontogianni
J
Judith Brock
S
Susan A. Wood
F
Felix Herth *
M
MarciniukDarcy (Miranda Kirby)
DOI:10.1183/13993003.03078-2021delete
delete原文链接
delete原文求助
delete分享
delete收藏
摘要

摘要

En 中文
Background There are similarities and differences between chronic obstructive pulmonary disease (COPD) and asthma patients in terms of computed tomography (CT) disease-related features. Our objective was to determine the optimal subset of CT imaging features for differentiating COPD and asthma using machine learning. Methods COPD and asthma patients were recruited from Heidelberg University Hospital (Heidelberg, Germany). CT was acquired and 93 features were extracted: percentage of low-attenuating area below -950 HU (LAA(950)), low-attenuation cluster (LAC) total hole count, estimated airway wall thickness for an idealised airway with an internal perimeter of 10 mm (Pi10), total airway count (TAC), as well as airway inner/outer perimeters/areas and wall thickness for each of five segmental airways, and the average of those five airways. Hybrid feature selection was used to select the optimum number of features, and support vector machine learning was used to classify COPD and asthma. Results 95 participants were included (n=48 COPD and n=47 asthma); there were no differences between COPD and asthma for age (p=0.25) or forced expiratory volume in 1 s (p=0.31). In a model including all CT features, the accuracy and F1 score were 80% and 81%, respectively. The top features were: LAA(950), outer airway perimeter, inner airway perimeter, TAC, outer airway area RB1, inner airway area RB1 and LAC total hole count. In the model with only CT airway features, the accuracy and F1 score were 66% and 68%, respectively. The top features were: inner airway area RB1, outer airway area LB1, outer airway perimeter, inner airway perimeter, Pi10, TAC, airway wall thickness RB1 and TAC LB10. Conclusion COPD and asthma can be differentiated using machine learning with moderate-to-high accuracy by a subset of only seven CT features.
Keyword:
RESOLUTION COMPUTED-TOMOGRAPHY
OBSTRUCTIVE PULMONARY-DISEASE
LUNG-VOLUME-REDUCTION
AIR-FLOW OBSTRUCTION
EMPHYSEMA
AIRWAYS
CLASSIFICATION
DIMENSIONS
GEOMETRY
TRIAL

期刊

European Respiratory Journal 封面图
European Respiratory Journal
IF:
21
论文数:
5.3W
被引数:
5.4W

机构

T
Toronto Metropolitan University
学者数:
6.0K
论文数: 7.0K
被引数: 6.4K
R
Ruprecht Karls University Heidelberg
学者数:
5.6W
论文数: 4.3W
被引数: 66
引用论文

引用论文

Quantitative assessment of airway remodeling using high-resolution CT
errCHEST
IF8.6
err2002-12-01
err183
PREAI
errNakano, Y; Müller, NL; King, GG; Niimi, A; Kalloger, SE; Mishima, M; Paré, PD
err分享
err收藏
Quantifying tracheobronchial tree dimensions: methods, limitations and emerging techniques
err2009-06-30
err56
errOAAI
errWilliamson, J. P.; James, A. L.; Phillips, M. J.; Sampson, D. D.; Hillman, D. R.; Eastwood, P. R.
err分享
err收藏
Deep Learning Enables Automatic Classification of Emphysema Pattern at CT
errRADIOLOGY
IF15.2
err2020-02-01
err100
errOAAI
errHumphries, Stephen M.; Notary, Aleena M.; Centeno, Juan Pablo; Strand, Matthew J.; Crapo, James D.; Silverman, Edwin K.; Lynch, David A.
err分享
err收藏
Comparison of spatially matched airways reveals thinner airway walls in COPD. The Multi-Ethnic Study of Atherosclerosis (MESA) COPD Study and the Subpopulations and Intermediate Outcomes in COPD Study (SPIROMICS)
errTHORAX
IF7.7
err2014-06-13
err122
errOAAI
errSmith, Benjamin M.; Hoffman, Eric A.; Rabinowitz, Dan; Bleecker, Eugene; Christenson, Stephanie; Couper, David; Donohue, Kathleen M.; Han, Meilan K.; Hansel, Nadia N.; Kanner, Richard E.; Kleerup, Eric; Rennard, Stephen; Barr, R. Graham
err分享
err收藏
Standardisation of spirometry肺活量测定的标准化
err2005-08-01
err1.4W
errOAAI
errMiller, MR; Hankinson, J; Brusasco, V; Burgos, F; Casaburi, R; Coates, A; Crapo, R; Enright, P; van der Grinten, CPM; Gustafsson, P; Jensen, R; Johnson, DC; MacIntyre, N; McKay, R; Navajas, D; Pedersen, OF; Pellegrino, R; Viegi, G; Wanger, J
err分享
err收藏
Complexity of terminal airspace geometry assessed by lung computed tomography in normal subjects and patients with chronic obstructive pulmonary disease
err1999-08-03
err304
errOAAI
errMishima, M; Hirai, T; Itoh, H; Nakano, Y; Sakai, H; Muro, S; Nishimura, K; Oku, Y; Chin, K; Ohi, M; Nakamura, T; Bates, JHT; Alencar, AM; Suki, B
err分享
err收藏
Quantitative Computed Tomography of the Lungs and Airways in Healthy Nonsmoking Adults健康的非吸烟成年人的肺部和气道的定量计算机断层扫描
err2012-10-01
err129
errOAAI
errZach, Jordan Alexander; Newell, John D., Jr.; Schroeder, Joyce; Murphy, James R.; Curran-Everett, Douglas; Hoffman, Eric A.; Westgate, Philip M.; Han, MeiLan K.; Silverman, Edwin K.; Crapo, James D.; Lynch, David A.
err分享
err收藏
An efficient hybrid feature selection method to identify potential biomarkers in common chronic lung inflammatory diseases
err2020-09-01
err19
errOAAI
errMaghsoudloo, Mazaher; Jamalkandi, Sadegh Azimzadeh; Najafi, Ali; Masoudi-Nejad, Ali
err分享
err收藏
Airway wall geometry in asthma and nonasthmatic eosinophilic bronchitis
err2009-05-11
err59
errOAAI
errSiddiqui, S.; Gupta, S.; Cruse, G.; Haldar, P.; Entwisle, J.; Mcdonald, S.; Whithers, P. J.; Hainsworth, S. V.; Coxson, H. O.; Brightling, C.
err分享
err收藏
学者 查看更多内容