Simulation-Enhanced Learning in Nuclear Medicine: Practical-Use SCAFFOLD

Area of Science:

• Medical Education
• Nuclear Medicine Technology

Background:

• Increasing complexity in nuclear medicine practice necessitates innovative training solutions.
• Placement scarcity and workforce strain challenge traditional clinical training models.
• Simulation-based education offers a strategic approach to enhance nuclear medicine technologist training.

Purpose of the Study:

• To present practical implementation strategies for simulation in nuclear medicine technologist training.
• To introduce the Simulation as a Calibrated Framework for Optimizing Learning and Development (SCAFFOLD) framework.
• To explore diverse simulation modalities and enrichment tools for enhanced learning.

Main Methods:

• Exploration of various simulation modalities: task trainers, human actors, VR/AR, AI, and in situ integration.
• Presentation of enrichment tools to improve feedback, fidelity, and personalization.
• Conceptualization of simulation as a staged developmental framework using case examples.

Main Results:

• Simulation acts as a scaffold to reduce cognitive load and enhance safety.
• Diverse simulation modalities and tools can be integrated across the training continuum.
• The SCAFFOLD framework provides a blueprint for work-integrated learning readiness.

Conclusions:

• Simulation-based education is crucial for preparing nuclear medicine technologists for complex practice.
• The SCAFFOLD framework offers a pragmatic approach to optimize learning and development.
• Simulation enhances readiness for clinical engagement while valuing authentic experience.