PEER-REVIEWED RESEARCH

Peer-Reviewed Research on Virtual Medical Coaching 

This page brings together peer-reviewed studies evaluating Virtual Medical Coaching across radiography education, radiation safety training, and midwifery simulation. The research examines clinical preparedness, image evaluation, radiation protection understanding, occupational dose reduction, and learning outcomes in healthcare training. 

These studies show how immersive simulation improves clinical preparedness, strengthens radiographic positioning and image evaluation, enhances understanding of radiation protection, and enables safe, repeatable training without patient risk. 

What the research shows

  • Improved clinical performance and positioning accuracy in radiography training
  • Increased student confidence and readiness for clinical practice
  • Measurable reductions in occupational radiation exposure following training
  • Stronger retention of radiation safety behaviours over time
  • Higher engagement and motivation compared with traditional teaching methods

These findings are consistent across multiple peer-reviewed studies evaluating simulation-based training in healthcare education. 

Independence statement

All studies listed on this page were conducted independently by academic institutions. Virtual Medical Coaching was not involved in study design, funding, data collection, or analysis. The findings represent unbiased evaluations of immersive simulation in healthcare education. 

Radiography Student using a Virtual Reality Headset

Peer-Reviewed Research in Radiography Education

Comparing Clinical Preparedness of Newly Qualified Diagnostic Radiographers

Karimi et al., 2025

Simulation-trained graduates demonstrated higher confidence, stronger clinical decision-making, and greater readiness for independent practice compared to those trained through conventional pathways. This mixed-methods study compared newly qualified diagnostic radiographers and found that immersive simulation strengthens the transition from education to clinical practice by improving practical skills and real-world decision-making.

→ Read the full peer-reviewed study

Enhancing Educational Outcomes Through Hybrid Simulation Methods

Arroyo, S., Garcia, A., 2025

Students trained using a hybrid model combining immersive virtual reality and physical simulation demonstrated significantly higher knowledge scores, practical performance, internship readiness, and clinical preparedness compared with those trained using physical simulation alone. The three-year cohort study showed that integrating VR into existing curricula delivers sustained improvements in academic outcomes, engagement, motivation, and career readiness.

→ Read the full peer-reviewed study

The Impact of 3D Virtual Reality Radiography Practice on Student Performance in Clinical Practice

O’Connor, M., Rainford, L., 2023

Students who completed structured VR-based training demonstrated significantly higher clinical performance scores, particularly in positioning accuracy, workflow execution, and image quality assessment. The study showed that immersive simulation supports effective transfer of skills from training to clinical environments, reducing the need for corrective intervention and improving early clinical performance.

→ Read the full peer-reviewed study

The effect of non-immersive virtual reality radiographic positioning simulation on first-year radiography students’ image evaluation performance

Miller, A., Schmid, A., & Abbey, C., 2024

Non-immersive VR training resulted in modest improvements in theoretical understanding and error recognition but limited gains in practical performance and spatial understanding. The study demonstrated that the absence of embodied interaction and real-time spatial feedback constrains learning outcomes compared with immersive VR approaches.

→ Read the full peer-reviewed study

Comparison of virtual reality and physical simulation training in first-year radiography students

Rowe, G., García, S., & Rossi, P., 2022

Students trained using VR demonstrated comparable or superior performance in positioning accuracy, image evaluation, and conceptual understanding compared with those trained using traditional physical simulation. The study showed that VR enables consistent, repeatable practice and improves engagement and confidence prior to clinical exposure.

→ Read the full peer-reviewed study

3D virtual reality simulation in radiography education: The students’ experience

O’Connor, M., & Rainford, L., 2020

Students reported high levels of engagement, improved spatial awareness, and increased confidence when using immersive VR simulation. The study demonstrated that VR provides a realistic and effective learning environment that supports early skills development and prepares students for clinical placement.

→ Read the full peer-reviewed study

Peer-Reviewed Research in Radiation Safety 

Student perceptions of the use of three-dimensional virtual reality simulation in the delivery of radiation protection training for radiography and medical students

L. Rainford, A. Tcacenco, J. Potocnik, C. Brophy, A. Lunney, D. Kearney, M. O'Connor, 2023

Students reported improved understanding of radiation protection concepts, particularly scatter behaviour and dose reduction strategies, when using immersive VR simulation. The study showed that VR enhances conceptual understanding and increases confidence in applying radiation safety principles in clinical settings. 

→ Read the full peer-reviewed study

Assessing the impact of virtual reality training on radiation dose reduction among interventional radiology nurses: a multicenter crossover study

Kaber K. Khamis, Amina S. Bello, Muhammad L. Abdullahi, 2025

Immersive VR training improved application of radiation protection principles and was associated with measurable improvements in dose-related behaviours among interventional radiology nurses. The crossover study design confirmed that these improvements were attributable to simulation training rather than experience alone. 

→ Read the full peer-reviewed study

Comparing virtual reality and traditional training in radiation safety practices over three years among cardiologists and scrub nurses

Rezaei, A., Karimi, H., Jafari, R., Esmaili, M., & Naseri, S, 2025

Clinicians trained using immersive VR demonstrated more consistent and sustained application of radiation safety practices over three years compared with those receiving traditional training. The study showed that VR supports long-term retention and reduces variability in radiation protection behaviour. 

→ Read the full peer-reviewed study

Virtual reality training for radiation safety in cardiac catheterization laboratories: an integrated study

Fujiwara, A., Fujimoto, S., Ishikawa, R., & Tanaka, A., 2024

Simulation-based radiation safety training resulted in statistically significant reductions in occupational radiation dose across multiple staff groups. The study demonstrated that targeted immersive training improves understanding of radiation behaviour and supports measurable improvements in clinical safety practice. 

→ Read the full peer-reviewed study

Comparative Effectiveness of Immersive Virtual Reality and Traditional Didactic Training on Radiation Safety in Medical Professionals: A Crossover Study 

Mwangi, W., & Tanaka, Y., 2025

Immersive simulation-based training resulted in stronger application of radiation protection principles compared with traditional didactic instruction. The study showed that VR improves recognition of high-risk scenarios, positioning awareness, and procedural decision-making related to dose management.

→ Read the full peer-reviewed study

Peer-Reviewed Research in Midwifery Simulation 

Virtual reality training to enhance clinical competence and student engagement in Ghana 

Baidoo, K., & Adu, C., 2025

Students trained using immersive simulation demonstrated significantly higher clinical competence, engagement, and assessment performance compared with those trained using conventional methods. The study showed that simulation supports scalable, high-quality training in environments with limited clinical exposure.

→ Read the full peer-reviewed study

Academic Implementation and Case Studies 

The examples below are not peer-reviewed journal studies. They show how immersive simulation has been implemented in educational settings and how institutions have translated published research into practice. 

Academic Implementation Example

Radiography programs have integrated Virtual Medical Coaching into undergraduate curricula to support skills development prior to clinical placement. In these settings, immersive simulation is used alongside formal teaching to allow students to practise positioning, decision-making, and workflow in a structured environment.

These implementations complement peer-reviewed findings by demonstrating how simulation-based training can be operationalised within accredited education programs.

Read Case Study

Program-Level Adoption

Institutions offering diagnostic imaging education have reported positive early outcomes following the introduction of immersive simulation into routine teaching activities. Faculty feedback highlights improved student preparedness and engagement during the transition from classroom instruction to supervised clinical practice.

These examples illustrate how findings reported in the academic literature can be translated into practical educational use.

Read Case Study
Academic discussion on immersive simulation in radiography education.
WHITEPAPER

Evidence Summary

A synthesis of peer-reviewed research examining the impact of Virtual Medical Coaching on clinical competence, radiation safety, and training outcomes.

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 Educator and Clinical Feedback on Simulation Training

Independent feedback from educators and clinical staff using Virtual Medical Coaching in real training environments. 

Virtual Medical Coaching has been one of the most impactful additions to our training programme. The integration of immersive VR simulation significantly improved how students develop clinical skills before entering real radiography environments.

CEO Dr. Kay Giles

The VR simulation aligns closely with modern healthcare training requirements. It provides realistic, repeatable radiography scenarios that support practical skill development and improve student readiness for clinical placement

Education Technology Manager, NHS Jonathan Duddle

The platform is highly engaging and clinically realistic. It offers a valuable practical learning environment that helps students build confidence, improve positioning accuracy, and understand real-world radiography workflows.

Clinical Tutor Lauren Jones

The simulation reflects key radiographic practice accurately. It enables learners to focus on positioning, technique, and image acquisition, improving both understanding and performance in clinical imaging tasks.

Senior Lecturer Kathryn Boddington

The simulation provides a safe environment to practise radiation safety and radiographic technique before clinical exposure. It helps staff and students understand dose, positioning, and shielding decisions in a way that is difficult to achieve through traditional teaching alone.

Clinical user/practitioner Dr. Natasha Brown