AI-based HRCT quantification for systemic sclerosis-associated interstitial lung disease risk stratification and clinical decision support
Source article: Artificial intelligence for lung disease quantification in systemic sclerosis-associated interstitial lung disease and other connective tissue disease-associated interstitial lung disease
Abstract: Purpose of review Systemic sclerosis-associated interstitial lung disease (SSc-ILD) is the leading cause of disease-related mortality in systemic sclerosis and the connective tissue disease-associated ILD (CTD-ILD) in which artificial intelligence imaging has advanced most rapidly. Visual high-resolution CT (HRCT) scoring is reader-dependent and limits clinical decision-making. This review summarizes clinically relevant artificial intelligence and radiomics publications from approximately the last 18 months, foc…
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HR tomography of the chest of an IPF patient 2 by IPFeditor. CC BY-SA 3.0 · https://creativecommons.org/licenses/by-sa/3.0
This peer-reviewed review summarizes recent AI and radiomics work in systemic sclerosis-associated ILD, the leading cause of disease-related mortality in systemic sclerosis, where visual HRCT scoring is reader-dependent. It reports that deep-learning UIP probability and whole-chest quantitative biomarkers stratify FVC decline and survival, and that AI-derived HRCT parameters correlate with DLCO/TLC and support pattern classification across CTD-ILD subtypes.
The findings suggest AI quantification could become a credible adjunct for rheumatology and radiology practice, but deployment as a treatment-triggering biomarker remains premature. The review emphasizes that prospective multicenter validation, protocol harmonization, calibration, version control, and multidisciplinary integration are still needed to establish reliability and clinical utility.
- In SSc-ILD, deep-learning UIP probability was reported to stratify FVC decline and long-term survival.
- Whole-chest quantitative imaging biomarkers were described as extending risk prediction beyond lung involvement alone.
- Automated SSc-specific segmentation, explainable Goh-equivalent scoring, slice-reduced radiomics, and open datasets were cited as strengthening the methodological base.
In systemic sclerosis-associated ILD, AI-based HRCT quantification stratifies FVC decline and long-term survival and correlates with lung function measures to predict mortality.
Visual HRCT scoring remains reader-dependent and AI outputs lack prospective multicenter validation and protocol harmonization needed to serve as treatment-triggering biomarkers.
The rundown
The review covers approximately the last 18 months of AI and radiomics literature, noting a shift from visual-score emulation toward outcome-oriented quantitative imaging biomarkers.
Parallel findings in RA-ILD and IIM-ILD and qCT definitions of progressive pulmonary fibrosis in broader fibrosing ILD were highlighted as conceptual advances relevant to future SSc-ILD trials.
The authors conclude the most defensible deployment model is human-in-the-loop decision support rather than autonomous treatment triggering.
Prospective multicenter validation, protocol harmonization, calibration, and integration into multidisciplinary discussion are still required before AI outputs can be used as treatment-triggering biomarkers.
Sources
- Peer-reviewedCurrent Opinion in Rheumatology2026-09-09
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