Innovating Nephrology Point-of-Care Ultrasonography Education: Artificial Intelligence-Assisted Curriculum Integration with Human Expert Feedback Loops

Background: Point-of-care ultrasound (POCUS) education is crucial for nephrology fellowship programs to enhance timely diagnostic accuracy, procedural guidance, and patient management. Integrating a comprehensive POCUS curriculum is essential for advancing educational quality and preparing fellows for effective clinical practice in a timely manner. This quality improvement project involved experts using AI tools to develop a Nephrology POCUS curriculum. Methods: An AI-assisted curriculum development process was conducted at the Mayo Clinic Minnesota Nephrology Fellowship Program in April 2024. The process involved multiple stages of feedback and refinement using several AI models, including GPT-4.0, Claude 3.0 Opus, Gemini Advanced, and Meta AI with Llama 3. GPT-4.0 generated initial curriculum drafts, while other AI agents provided iterative feedback for improvement. Finally, blinded Nephrology POCUS experts provided insights and expertise to refine the AI-generated curriculum further. Results: The refinement process included 12 ChatGPT-4.0 revisions and a 29 communications across four AI tools, encompassing initial feedback, subsequent revisions, and final approvals from the AI tools. It yielded in a curriculum with broadened core topics, educational methods, assessment mechanisms, and integration into rotations. POCUS experts provided positive and constructive feedback, expressing satisfaction with the overall curriculum while offering suggestions for improvement. These suggestions included placing more emphasis on using POCUS for assessing fistulas and grafts, making volume assessment open-ended, structuring training to progress fellows from novice to expert, and utilizing Qpath software for mentored scans. Experts also questioned the inclusion of specific procedures and suggested pursuing certification through ASDIN. Conclusion: The AI-assisted project effectively developed a comprehensive Nephrology POCUS curriculum at the Mayo Clinic Minnesota, significantly enhancing the educational offerings of the fellowship program. Integrating expert feedback, the curriculum emphasizes core POCUS applications, educational diversity, and robust assessment techniques. This innovative approach melds expert insights with AI capabilities, promising substantial improvements in POCUS education.

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Journal
Journal of the American Society of Nephrology
Published
2024-10-01
DOI
https://doi.org/10.1681/asn.20245jbzc0tk
Primary Topic
Radiology practices and education
Type
article
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article

Innovating Nephrology Point-of-Care Ultrasonography Education: Artificial Intelligence-Assisted Curriculum Integration with Human Expert Feedback Loops

Wisit Cheungpasitporn, Iasmina Craici, Mohammad Salman Sheikh, Fawad Qureshi et al.
Journal of the American Society of Nephrology
Radiology practices and education
article

Innovating Nephrology Point-of-Care Ultrasonography Education: Artificial Intelligence-Assisted Curriculum Integration with Human Expert Feedback Loops

Wisit Cheungpasitporn, Iasmina Craici, Mohammad Salman Sheikh, Fawad Qureshi, Charat Thongprayoon, James R. Gregoire, Kianoush Kashani
article en

Abstract

Background: Point-of-care ultrasound (POCUS) education is crucial for nephrology fellowship programs to enhance timely diagnostic accuracy, procedural guidance, and patient management. Integrating a comprehensive POCUS curriculum is essential for advancing educational quality and preparing fellows for effective clinical practice in a timely manner. This quality improvement project involved experts using AI tools to develop a Nephrology POCUS curriculum. Methods: An AI-assisted curriculum development process was conducted at the Mayo Clinic Minnesota Nephrology Fellowship Program in April 2024. The process involved multiple stages of feedback and refinement using several AI models, including GPT-4.0, Claude 3.0 Opus, Gemini Advanced, and Meta AI with Llama 3. GPT-4.0 generated initial curriculum drafts, while other AI agents provided iterative feedback for improvement. Finally, blinded Nephrology POCUS experts provided insights and expertise to refine the AI-generated curriculum further. Results: The refinement process included 12 ChatGPT-4.0 revisions and a 29 communications across four AI tools, encompassing initial feedback, subsequent revisions, and final approvals from the AI tools. It yielded in a curriculum with broadened core topics, educational methods, assessment mechanisms, and integration into rotations. POCUS experts provided positive and constructive feedback, expressing satisfaction with the overall curriculum while offering suggestions for improvement. These suggestions included placing more emphasis on using POCUS for assessing fistulas and grafts, making volume assessment open-ended, structuring training to progress fellows from novice to expert, and utilizing Qpath software for mentored scans. Experts also questioned the inclusion of specific procedures and suggested pursuing certification through ASDIN. Conclusion: The AI-assisted project effectively developed a comprehensive Nephrology POCUS curriculum at the Mayo Clinic Minnesota, significantly enhancing the educational offerings of the fellowship program. Integrating expert feedback, the curriculum emphasizes core POCUS applications, educational diversity, and robust assessment techniques. This innovative approach melds expert insights with AI capabilities, promising substantial improvements in POCUS education.

Journal of the American Society of NephrologyVol. 35(10S)
Mayo Clinic (US)
Quality Education
Openalex Percentile: Top 68%
Radiology practices and education
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