Diagnostic value of artificial intelligence-based software for the detection of pediatric upper extremity fractures - Scorecard - MDSpire

Diagnostic value of artificial intelligence-based software for the detection of pediatric upper extremity fractures

  • By

  • Federico Mollica

  • Corona Metz

  • Matthias Stephan Anders

  • Kim Kathrin Wismayer

  • Andrea Schmid

  • Stefan M. Niehues

  • Simon Veldhoen

  • August 23, 2025

  • 0 min

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Clinical Scorecard: Evaluating the Diagnostic Efficacy of AI-Driven Software for Identifying Upper Limb Fractures in Children

At a Glance

CategoryDetail
ConditionPediatric upper limb fractures
Key MechanismsAI-based radiograph analysis detecting fractures and elbow joint effusions using deep learning algorithms
Target PopulationChildren aged 2 to 18 years with suspected traumatic upper extremity fractures
Care SettingPediatric emergency departments and radiology departments

Key Highlights

  • Over 75% of pediatric fractures occur in the upper extremities, predominantly the forearm.
  • AI software (BoneView®) uses a two-stage object detection framework trained on over 300,000 radiographs including pediatric cases.
  • AI can support fracture detection, reduce radiation exposure by preventing unnecessary CT scans, and assist where pediatric radiology expertise is limited.

Guideline-Based Recommendations

Diagnosis

  • Use conventional radiographs as the primary imaging modality for suspected pediatric fractures.
  • Apply the ALARA principle to minimize radiation exposure in children.
  • Employ AI tools as adjunctive support or second opinion to improve fracture detection accuracy, especially when pediatric radiology expertise is unavailable.

Management

  • Prompt and accurate fracture detection is essential to avoid long-term complications in the growing skeleton.
  • Avoid premature use of CT scans to reduce radiation exposure.

Monitoring & Follow-up

  • Radiographs should be evaluated by experienced pediatric radiologists; discrepancies require re-evaluation.
  • AI outputs with 'doubt' classification should prompt additional clinical or radiological review.

Risks

  • Children have increased radiosensitivity necessitating careful radiation dose management.
  • Misinterpretation of pediatric radiographs due to complex anatomy can lead to missed fractures or unnecessary imaging.

Patient & Prescribing Data

Children aged 2 to 18 years presenting with suspected upper limb fractures in emergency settings

AI software can improve diagnostic accuracy and reduce unnecessary radiation exposure by supporting radiologists in fracture detection.

Clinical Best Practices

  • Ensure radiographs are of sufficient quality despite minor technical limitations to allow accurate evaluation.
  • Use AI tools as a complementary diagnostic aid, not a replacement for expert pediatric radiologist interpretation.
  • Exclude cases with pathological or non-accidental fractures from AI evaluation to maintain diagnostic accuracy.
  • Confirm fracture diagnoses with consensus between initial and secondary radiologist evaluations before using as reference standard.

References

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