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TRUVACE RECORD VERSION record: TRV-2026-1933 version: 1 kind: certified reason: Certified into the record timestamp: 2026-10-19T22:01:45.931831Z status: published lens: g_space sector: education headline: Integrating Large Language Models and Metaverse-Related Technologies in Urology Education: Viewpoint dek: Urology education must prepare learners to integrate anatomical visualization, diagnostic reasoning, technical performance, communication, and ethical judgment, often under restricted working hours and limited access to high-fidelity cases. This viewpoint argues that large language models (LLMs) and metaverse-related technologies should be integrated as complementary, supervised educational tools rather than treated as autonomous replacements for educators or clinical experience. LLMs can support cognitive appre… gain_title: Used as supervised complements, LLMs and extended-reality tools could support apprenticeship-style learning, communication practice, and spatial and remote procedural training for urology learners. problem_title: (none) trace_subject: (none) gain_reading: Used as supervised complements, LLMs and extended-reality tools could support apprenticeship-style learning, communication practice, and spatial and remote procedural training for urology learners. gain_evidence: LLMs can support cognitive apprenticeship, documentation practice, assessment, and communication simulations | extended reality, cloud computing, and virtual digital humans can support spatial, procedural, and remote learning problem_reading: (none) problem_evidence: (none) quick_read: This viewpoint, published in JMIR Medical Education, argues that urology training should bring in large language models and metaverse-related technologies as supervised tools that sit alongside educators and clinical experience, not replace them. It sets out three messages: alignment with defined competencies, staged implementation, and evaluation of real clinical transfer. The proposal matters because urology trainees face restricted working hours and limited access to high-fidelity cases, which these tools might help offset. The paper is an opinion piece and reports no measured outcomes. Whether the tools improve clinical performance remains unproven until prospective trials are run, and the risks it lists remain open. limitation: The article is a viewpoint that calls for randomized controlled trials and prospective evaluation, indicating effectiveness on clinical performance has not yet been established. tag: Evidence-backed gain key_points: Urology training must combine anatomical visualization, diagnostic reasoning, technical performance, communication, and ethical judgment. | Constraints cited include restricted working hours and limited access to high-fidelity cases. | Proposed rollout is staged, from governed data infrastructure to intelligent interaction and then immersive multimodal training. | The authors call for rigorous randomized controlled trials and for haptic and biomechanical fidelity. | Risks discussed include hallucination, bias, privacy, accountability, and deskilling. rundown: The authors present LLMs mainly as aids to cognitive apprenticeship, documentation practice, assessment, and communication simulations. Extended reality, cloud computing, and virtual digital humans are positioned for spatial, procedural, and remote learning. Their first message is that educational value depends on alignment with defined urological competencies. Their second is staged implementation, beginning with governed data infrastructure. Their third is that effectiveness must be shown through prospective evaluations of transfer to clinical performance, not technical novelty. The paper concludes that a responsible future requires collaboration among learners, educators, clinicians, engineers, ethicists, institutions, and professional bodies. sources: - peer_reviewed | JMIR Medical Education | https://doi.org/10.2196/93235 | 2026-10-19 prev: 0000000000000000000000000000000000000000000000000000000000000000
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