Integrative Machine Learning Approaches for Differentiating Pediatric Multiple Sclerosis from Non-Inflammatory Disorders via Optical Coherence Tomography - Report - MDSpire

Integrative Machine Learning Approaches for Differentiating Pediatric Multiple Sclerosis from Non-Inflammatory Disorders via Optical Coherence Tomography

  • By

  • Chaojun Chen

  • Sahar Soltanieh

  • Sajith Rajapaksa

  • Farzad Khalvati

  • E. Ann Yeh

  • April 21, 2026

  • 0 min

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Clinical Report: Integrative Machine Learning Approaches for Differentiating Pediatric MS

Overview

This study evaluates the efficacy of multimodal deep learning models using optical coherence tomography (OCT) to differentiate pediatric multiple sclerosis (POMS) from non-inflammatory neurological conditions. The early fusion model demonstrated superior diagnostic performance, achieving an AUC of 0.90 and an accuracy of 87%.

Background

Pediatric-onset multiple sclerosis (POMS) is a rare but critical condition that requires early diagnosis for effective intervention. The optic nerve is often the first site of inflammation in MS, making it a focal point for diagnostic imaging. Optical coherence tomography (OCT) has emerged as a valuable tool in assessing retinal changes associated with MS, yet its application in pediatric cases remains underexplored.

Data Highlights

ModelAUCWeighted F1Macro F1Accuracy
Early Fusion0.900.870.7787%
Best Unimodal Feature-based (SVC)0.840.850.7385%
Best Image-based (ResNet101 with SVC)0.790.840.7087%
Late FusionN/AN/AN/A82%

Key Findings

  • The early fusion model outperformed unimodal and late fusion models in diagnosing POMS.
  • OCT-derived features correlate with disease severity and visual dysfunction in MS.
  • POMS accounts for approximately 3–5% of all MS cases, highlighting the need for effective diagnostic tools.
  • Multimodal learning captures complementary patterns associated with MS pathology.
  • Diagnostic ambiguity in pediatric MS necessitates integrating multiple data sources for improved accuracy.

Clinical Implications

The findings suggest that integrating OCT with machine learning can enhance diagnostic accuracy for pediatric MS, potentially leading to earlier and more effective treatment. Clinicians should consider utilizing multimodal approaches in ambiguous cases to improve diagnostic confidence.

Conclusion

The study demonstrates the potential of multimodal deep learning models in enhancing the diagnostic process for pediatric MS using OCT. This approach may serve as a valuable tool in clinical practice for early identification and intervention.

References

  1. Cohen JA, 2025 -- 2024 revision of the McDonald diagnostic criteria for MS: Substantial and substantive changes
  2. Chitnis T, et al., 2024 -- Teriflunomide in pediatric patients with relapsing multiple sclerosis: Open-label extension of TERIKIDS
  3. BMC Medicine -- Performance of the 2023 diagnostic criteria for MOGAD: real-world application in a Chinese multicenter cohort of pediatric and adult patients
  4. Brain -- Integration of MRI and serum biomarker analysis identifies unique subtypes of multiple sclerosis
  5. European Radiology -- Cine-cardiac MRI for Differentiating Ischemic from Non-Ischemic Cardiomyopathies Using Machine Learning Techniques
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  8. 2024 revision of the McDonald diagnostic criteria for MS: Substantial and substantive changes - Jeffrey A Cohen, 2025
  9. Performance of the 2023 diagnostic criteria for MOGAD: real-world application in a Chinese multicenter cohort of pediatric and adult patients | BMC Medicine | Full Text
  10. Teriflunomide in pediatric patients with relapsing multiple sclerosis: Open-label extension of TERIKIDS - Tanuja Chitnis, Brenda Banwell, Ludwig Kappos, Douglas L Arnold, Kivilcim Gücüyener, Kumaran Deiva, Stephane Saubadu, Wenruo Hu, Myriam Benamor, Annaig Le-Halpere, Philippe Truffinet, Marc Tardieu, 2024

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