AI-Empowered Nuclear Medicine Education, Part 3: Practical AI Applications for Learners.

IF 1.5 Q4 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING
Keith M Jacobs, Justin G Peacock
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Abstract

Expanding clinical volumes, evolving radiopharmaceuticals, and new imaging technologies shape the training environment for nuclear medicine (NM) learners. Additionally, artificial intelligence (AI) tools are increasingly available. These tools can draft study guides, generate questions, simulate patient interactions, critique explanations, organize sources, and assist early research development. However, these benefits require disciplined use, because AI tools can also generate inaccurate, biased, unsupported, or overly fluent responses that interfere with durable learning. This learner-focused article provides practical AI workflows for NM technology students, residents, and fellows. It emphasizes preserving self-regulated learning, professional judgment, accountability, and source verification. Building on the theoretical foundations of part 1, this article treats AI as a structured learning partner rather than an educational authority. Direct evidence regarding NM learner outcomes remains limited. Nevertheless, broader health professions literature supports cautious AI exploration when learners prioritize verification, critical evaluation, and feedback over passive answer generation. Effective workflows require goal setting, initial independent effort, misconception identification, retrieval practice, self-explanation, source grounding, faculty review, and iterative revision. Furthermore, learners must avoid protected information, respect copyright, disclose AI assistance, and maintain skepticism toward generated output.

人工智能核医学教育,第3部分:学习者的实际人工智能应用。
不断扩大的临床量,不断发展的放射性药物和新的成像技术塑造了核医学(NM)学习者的培训环境。此外,人工智能(AI)工具越来越多。这些工具可以起草研究指南,产生问题,模拟患者互动,批评解释,组织资源,并协助早期研究发展。然而,这些好处需要有纪律地使用,因为人工智能工具也可能产生不准确、有偏见、不受支持或过于流畅的反应,从而干扰持久的学习。这篇以学习者为中心的文章为NM技术的学生、住院医师和研究员提供了实用的AI工作流程。它强调保持自我调节的学习、专业判断、责任和来源验证。基于第1部分的理论基础,本文将AI视为结构化的学习伙伴,而不是教育权威。关于NM学习者成果的直接证据仍然有限。然而,更广泛的卫生专业文献支持谨慎的人工智能探索,当学习者优先考虑验证、批判性评估和反馈,而不是被动的答案生成。有效的工作流程需要目标设定、最初的独立努力、误解识别、检索实践、自我解释、来源基础、教员评审和迭代修订。此外,学习者必须避免受保护的信息,尊重版权,披露人工智能帮助,并对生成的输出保持怀疑态度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of nuclear medicine technology
Journal of nuclear medicine technology RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING-
CiteScore
1.90
自引率
15.40%
发文量
57
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