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Using Virtual Simulation To Increase Deep Learning in Radiography Students.

Jennifer Little1

  • 1Assistant professor for California State University, Northridge. She has been a practicing radiologic technologist for more than 17 years, specializing in magnetic resonance imaging for 14 of those 17 years. She teaches medical imaging, pathophysiology, and research courses, specializing in radiographic and advanced imaging pathology. She also is the vice president of the California Society of Radiologic Technologists, teaches venipuncture certificate courses, and is involved with starting the first positron emission tomography-computed tomography programs on the West Coast.

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Summary
This summary is machine-generated.

Virtual simulation combined with traditional teaching enhances radiologic technology students' deep learning and performance. Effective instructional design is key to maximizing benefits in virtual simulation environments.

Keywords:
communities of practice learning theoryexperiential learning modelgamingradiographyvirtual simulation

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Area of Science:

  • Radiologic technology education
  • Medical simulation
  • Educational psychology

Background:

  • Traditional radiologic technology programs rely on physical x-ray laboratories.
  • There is a growing shift towards online learning environments, including virtual simulation.
  • Virtual simulation offers a safe and accessible alternative for practicing techniques.

Purpose of the Study:

  • To review studies validating the integration of traditional teaching with virtual simulation.
  • To assess the impact on common errors, student confidence, performance, and deep learning.
  • To explore the role of virtual simulation in radiologic technology education.

Main Methods:

  • Searched electronic databases for studies on learning environments from 1999 to present.
  • Included concepts like deep vs. surface learning, online vs. face-to-face instruction, and virtual simulation labs.
  • Focused on literature relevant to radiologic science education.

Main Results:

  • Deep learning, characterized by critical thinking and discipline understanding, surpasses surface learning.
  • Virtual simulation's effectiveness depends on instructional design, not solely its use.
  • Instructors are increasingly adopting online and virtual simulation methods.

Conclusions:

  • Virtual simulation provides a risk-free environment for practicing radiologic techniques.
  • Designing virtual simulation around course outcomes and employing sound educational strategies fosters deep learning.
  • Understanding deep learning principles enables educators to create effective virtual simulation courses.