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Deep Learning-based Outcome Prediction in Progressive Fibrotic Lung Disease Using High-Resolution Computed Tomography

  • Simon L F Walsh
  • , John A. Mackintosh
  • , Lucio Calandriello
  • , Mario Silva
  • , Matteo Silva
  • , Nicola Sverzellati
  • , Anna Rita Larici
  • , Stephen M. Humphries
  • , David A. Lynch
  • , Helen E. Jo
  • , Ian Glaspole
  • , Christopher Grainge
  • , Nicole Goh
  • , Peter M A Hopkins
  • , Yuben Moodley
  • , Paul N. Reynolds
  • , Christopher Zappala
  • , Gregory Keir
  • , Wendy A. Cooper
  • , Annabelle M. Mahar
  • Samantha Ellis, Athol U. Wells, Tamera J. Corte
  • Imperial College London
  • Queensland Health
  • University of Parma
  • National Jewish Health
  • Royal Prince Alfred Hospital
  • Alfred Health
  • Hunter New England Health
  • Austin Health
  • University of Western Australia, School of Medicine and Pharmacology
  • Royal Adelaide Hospital
  • Royal Brisbane & Women’s Hospital
  • Department of Surgery, Princess Alexandra Hospital
  • Alfred Health

Risultato della ricerca: Contributo in rivista › Articolo

Abstract

Rationale: Reliable outcome prediction in patients with fibrotic lung disease using baseline high-resolution computed tomography (HRCT) data remains challenging. Objectives: To evaluate the prognostic accuracy of a deep learning algorithm (SOFIA [Systematic Objective Fibrotic Imaging Analysis Algorithm]), trained and validated in the identification of usual interstitial pneumonia (UIP)-like features on HRCT (UIP probability), in a large cohort of well-characterized patients with progressive fibrotic lung disease drawn from a national registry. Methods: SOFIA and radiologist UIP probabilities were converted to Prospective Investigation of Pulmonary Embolism Diagnosis (PIOPED)-based UIP probability categories (UIP not included in the differential, 0-4%; low probability of UIP, 5-29%; intermediate probability of UIP, 30-69%; high probability of UIP, 70-94%; and pathognomonic for UIP, 95-100%), and their prognostic utility was assessed using Cox proportional hazards modeling. Measurements and Main Results: In multivariable analysis adjusting for age, sex, guideline-based radiologic diagnosis, anddisease severity (using total interstitial lung disease [ILD] extent on HRCT, percent predicted FVC, DlCO, or the composite physiologic index), only SOFIA UIP probability PIOPED categories predicted survival. SOFIA-PIOPED UIP probability categories remained prognostically significant in patients considered indeterminate (n = 83) by expert radiologist consensus (hazard ratio, 1.73; P < 0.0001; 95% confidence interval, 1.40-2.14). In patients undergoing surgical lung biopsy (n = 86), after adjusting for guideline-based histologic pattern and total ILD extent on HRCT, only SOFIA-PIOPED probabilities were predictive of mortality (hazard ratio, 1.75; P < 0.0001; 95% confidence interval, 1.37-2.25). Conclusions: Deep learning-based UIP probability on HRCT provides enhanced outcome prediction in patients with progressive fibrotic lung disease when compared with expert radiologist evaluation or guideline-based histologic pattern. In principle, this tool may be useful in multidisciplinary characterization of fibrotic lung disease. The utility of this technology as a decision support system when ILD expertise is unavailable requires further investigation.
Lingua originaleInglese
pagine (da-a)883-891
Numero di pagine9
RivistaAmerican Journal of Respiratory and Critical Care Medicine
Volume206
DOI
Stato di pubblicazionePubblicato - 2022

Keywords

  • deep learning
  • idiopathic pulmonary fibrosis
  • usual interstitial pneumonia
  • radiology
  • interstitial lung disease

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