AI-Enabled Risk Communication For Rare Diseases: Care-Gap Analytics To Reduce Diagnostic Delay And HCP Uncertainty

This article presents an innovative artificial intelligence-enabled methodology for analyzing and addressing diagnostic delays in rare diseases. It integrates multi-dimensional healthcare data to reconstruct patient journeys, map physician influence networks, and quantify diagnostic blind spots across healthcare systems. Unlike traditional approaches that rely on disease-specific initiatives or anecdotal evidence, this systematic article examines structural factors influencing diagnostic timelines, including referral patterns, specialty access, and information flow among providers. Through advanced analytics, including sequence-mining algorithms, network modeling, and machine learning, the framework identifies high-impact intervention opportunities across specialty, geographic, and workflow dimensions. Implementation follows a structured approach involving data integration, model development, insight translation, intervention deployment, and outcome measurement. It has demonstrated significant reductions in diagnostic delays and misdiagnosis rates across multiple rare disease categories. As healthcare systems increasingly recognize diagnostic excellence as essential to quality care, this data-driven approach offers a scalable solution to transform the diagnostic odyssey for millions of rare disease patients worldwide.

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Publication Details

Journal
Journal of International Crisis and Risk Communication Research
Published
2025-10-09
DOI
https://doi.org/10.63278/jicrcr.vi.3317
Primary Topic
Artificial Intelligence in Healthcare
Type
article
Field-Weighted Citation Impact
0.00
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article

AI-Enabled Risk Communication For Rare Diseases: Care-Gap Analytics To Reduce Diagnostic Delay And HCP Uncertainty

Babar Shah
Journal of International Crisis and Risk Communication Research
Artificial Intelligence in Healthcare
article

AI-Enabled Risk Communication For Rare Diseases: Care-Gap Analytics To Reduce Diagnostic Delay And HCP Uncertainty

Babar Shah
article en

Abstract

This article presents an innovative artificial intelligence-enabled methodology for analyzing and addressing diagnostic delays in rare diseases. It integrates multi-dimensional healthcare data to reconstruct patient journeys, map physician influence networks, and quantify diagnostic blind spots across healthcare systems. Unlike traditional approaches that rely on disease-specific initiatives or anecdotal evidence, this systematic article examines structural factors influencing diagnostic timelines, including referral patterns, specialty access, and information flow among providers. Through advanced analytics, including sequence-mining algorithms, network modeling, and machine learning, the framework identifies high-impact intervention opportunities across specialty, geographic, and workflow dimensions. Implementation follows a structured approach involving data integration, model development, insight translation, intervention deployment, and outcome measurement. It has demonstrated significant reductions in diagnostic delays and misdiagnosis rates across multiple rare disease categories. As healthcare systems increasingly recognize diagnostic excellence as essential to quality care, this data-driven approach offers a scalable solution to transform the diagnostic odyssey for millions of rare disease patients worldwide.

Journal of International Crisis and Risk Communication Research
Doctors Company (United States) (US)
Openalex Percentile: Top 68%
Artificial Intelligence in Healthcare
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