Two-Phase Deep Learning Approach for Diagnosing Pediatric Obstructive Sleep Apnea Using Lateral Cephalometric Images - Report - DentalSpire

Two-Phase Deep Learning Approach for Diagnosing Pediatric Obstructive Sleep Apnea Using Lateral Cephalometric Images

  • By

  • Jiayi Zhang

  • Jiao Tan

  • Xuesha Tong

  • Huiya Wang

  • Yue Zhao

  • Jinlin Song

  • Yang Liu

  • April 21, 2026

  • 0 min

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Clinical Report: Two-Phase Deep Learning Approach for Diagnosing Pediatric OSA

Overview

This study presents a two-phase deep learning framework for diagnosing pediatric obstructive sleep apnea-hypopnea syndrome (OSAHS) using lateral cephalometric images. The model demonstrated high accuracy in segmentation and classification, significantly improving diagnostic performance among dentists.

Background

Pediatric OSAHS is a common disorder affecting 1%–4% of children, linked to serious comorbidities and increased healthcare utilization. Traditional diagnostic methods like polysomnography are costly and not widely accessible, highlighting the need for efficient screening tools. Lateral cephalograms, routinely used in dental practices, could serve as a valuable resource for opportunistic screening if enhanced by artificial intelligence.

Data Highlights

MetricValueConfidence Interval
Upper airway segmentation DSC0.931N/A
Upper airway segmentation IoU0.872N/A
Fusion model AUC0.945(0.863–0.994)
Fusion model F1 score0.933(0.818–0.995)
LCs model AUC0.797(0.585–0.968)
Mask-based ROI model AUC0.882(0.748–0.983)

Key Findings

  • The two-phase framework achieved a mean DSC of 0.931 for upper airway segmentation.
  • The fusion model for OSAHS classification reached an AUC of 0.945, outperforming traditional models.
  • Grad-CAM highlighted anatomically relevant areas, enhancing model interpretability.
  • AI assistance improved diagnostic accuracy by 0.165 for junior dentists and 0.237 for senior dentists.
  • This model could facilitate early detection and individualized management of pediatric OSAHS.

Clinical Implications

The proposed deep learning framework offers a promising alternative for diagnosing pediatric OSAHS using routine dental imaging. Its high accuracy and interpretability may support clinicians in making timely and informed decisions regarding patient management.

Conclusion

This study underscores the potential of integrating artificial intelligence into routine dental practices for the early diagnosis of pediatric OSAHS, which could lead to improved patient outcomes.

References

  1. Cascaded Deep Learning Approach for Segmenting Organs Related to Obstructive Sleep Apnea from Sagittal Spine MRI, Springer, 2021 -- Link
  2. Automated Assessment of Femoral Head Ossification Centers in Healthy Korean Children Using Deep Learning: Creation of an Innovative Radiographic Growth Chart, European Radiology, 2025 -- Link
  3. Hierarchical deep learning pipeline for robust cervical parameter measurement in radiographs with C7 obscuration, npj Digital Medicine, 2026 -- Link
  4. Obstructive Sleep Apnea Management in Children Despite Adenotonsillectomy: Guidelines From the American Thoracic Society, AAFP, 2024 -- Link
  5. A Randomized Trial of Adenotonsillectomy for Childhood Sleep Apnea, PMC, 2013 -- Link
  6. Cephalometry as an aid in the diagnosis of pediatric obstructive sleep apnoea: A systematic review and meta-analysis, PubMed, 2023 -- Link
  7. European Radiology — Automated Precision in Patient Positioning for Computed Tomography Utilizing Anterior-Posterior Localizer Images and a Deep Learning Approach: Findings from a Dual-Center Investigation
  8. Obstructive Sleep Apnea Management in Children Despite Adenotonsillectomy: Guidelines From the American Thoracic Society | AAFP
  9. A Randomized Trial of Adenotonsillectomy for Childhood Sleep Apnea - PMC
  10. Cephalometry as an aid in the diagnosis of pediatric obstructive sleep apnoea: A systematic review and meta-analysis - PubMed

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