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February 25, 2026JCI Insight0 citationsOpen Access

A machine learning–based triage system for systemic EBV-positive T/NK cell lymphoproliferative diseases of childhood

PGPujun GuanZCZihang ChenHDHanze Dong

Key Points

  • This research aims to develop and validate a machine learning-based triage system to improve assessment and management of EBV-positive T/NK cell lymphoproliferative diseases in children.
  • Constructed a triage system using data from 156 patients across 42 institutions.
  • Incorporated 35 patients from a prospective cohort and additional literature to evaluate model performance.
  • Applied an integrative machine learning strategy to identify important factors and enhance algorithm performance.
  • Simplified the model into a risk score for better interpretability.
  • The COLLAPSED system effectively identifies high-risk patients and improves clinical decision-making speed.
  • The model was externally validated, showing stable and high performance across different patient cohorts.
  • Facilitated timely initiation of potentially lifesaving treatments.

Abstract

Systemic Epstein-Barr virus-positive (EBV-positive) T/NK cell lymphoproliferative diseases of childhood (sEBV+T/NK-LPD) are a spectrum of rare diseases that have highly variable biological behavior, from indolent conditions to highly aggressive malignancies. Clinicians currently face substantial challenges in promptly assessing disease severity and predicting patient outcomes, leading to limitations in treatment planning. To address this challenge, we constructed a comprehensive triage system to aid in rapid clinical interventions. The study included 156 patients with newly diagnosed sEBV+T/NK-LPD from 42 institutions. An independent prospective cohort of 35 newly enrolled patients was further included to evaluate the model's performance. An additional 45 patients from the literature and 18 patients who underwent hematopoietic stem cell transplantation were included to test the score's generalizability. An integrative machine learning strategy was applied to identify robust and optimal factors and to integrate multiple algorithms to enhance the system's performance and stability. This system, termed COLLAPSED, identifies critical factors and provides a stable, high-performing ensemble. This model was validated externally and simplified into a risk score to improve interpretability and accessibility. The COLLAPSED system substantially enhances clinicians' ability to rapidly and precisely identify high-risk patients, thus enabling timely clinical decision-making and expedited initiation of potentially lifesaving treatments.

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Cite This Study

Guan et al. (2026) studied this question.

synapsesocial.com/papers/699e911bf5123be5ed04e5b1https://doi.org/10.1172/jci.insight.180837
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