AI in radiology and interventions: a structured narrative review of workflow automation, accuracy, and efficiency gains of today and what’s coming - Scorecard - MDSpire

AI in radiology and interventions: a structured narrative review of workflow automation, accuracy, and efficiency gains of today and what’s coming

  • By

  • Michael Friebe

  • November 17, 2025

  • 0 min

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Clinical Scorecard: The Role of Artificial Intelligence in Radiology: A Comprehensive Review of Current Workflow Automation, Diagnostic Accuracy, and Future Efficiency Enhancements

At a Glance

CategoryDetail
ConditionDiagnostic imaging and image-guided therapy workflows including cancer screening, lung screening, coronary stenting, and liver cryoablation
Key MechanismsAI/machine learning systems automate, improve, and provide new insights in imaging data reconstruction, analysis, prioritization, and procedural guidance under human oversight
Target PopulationPatients undergoing MRI, CT, ultrasound, and interventional image-guided procedures across oncology, cardiology, and hepatology
Care SettingRadiology departments and interventional suites within health systems integrating AI-enabled imaging workflows

Key Highlights

  • Over 1,247 AI-enabled medical devices authorized by FDA as of August 2025, with radiology comprising >75% of approvals
  • AI applications span automation (e.g., DL reconstruction), improvement (e.g., CAD triage), and new insights (e.g., wire-free physiology, opportunistic biomarkers)
  • Human-in-the-loop model emphasized with regulatory frameworks mandating oversight, data governance, bias monitoring, and post-market surveillance

Guideline-Based Recommendations

Diagnosis

  • Utilize AI to augment diagnostic accuracy in imaging modalities such as MRI and CT with validated deep learning algorithms
  • Apply AI-based lesion detection and characterization with demonstrated accuracy (e.g., 87.6% in MRI cancer screening)
  • Ensure external validation and bias assessment of AI tools prior to clinical deployment

Management

  • Adopt AI-enabled workflow automation where residual clinical risk is low and outputs are directly actionable under human supervision
  • Use AI to improve speed, accuracy, and consistency of clinician-led steps without replacing clinical judgment
  • Integrate AI-generated new insights cautiously, requiring further validation before automation

Monitoring & Follow-up

  • Implement continuous post-market monitoring and change control for AI systems to detect performance drift and maintain safety
  • Maintain transparency and interoperability standards in AI deployment
  • Conduct lifecycle monitoring aligned with risk-based regulatory frameworks

Risks

  • Recognize differing error profiles between AI and clinicians necessitating collaborative human-in-the-loop models
  • Avoid full automation in high-stake management decisions under uncertainty
  • Address potential bias and variability across sites and patient subgroups

Patient & Prescribing Data

Patients undergoing diagnostic imaging and interventional procedures in oncology, cardiology, and hepatology

AI-enabled devices improve diagnostic accuracy and workflow efficiency but require human oversight and prospective real-world validation to ensure clinical impact

Clinical Best Practices

  • Employ AI tools with demonstrated regulatory approval and clinical validation in the relevant imaging workflow steps
  • Maintain human oversight in all AI-assisted procedures to mitigate risks and ensure patient safety
  • Use risk-based frameworks to guide AI integration, emphasizing data governance, transparency, and bias monitoring
  • Continuously monitor AI system performance post-deployment to detect drift and maintain efficacy
  • Adopt a collaborative approach combining AI strengths with clinician expertise for optimal diagnostic and therapeutic outcomes

References

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