augmented reality prosthetic training

Introduction

Augmented Reality (AR) and Virtual Reality (VR) technologies are increasingly being explored for their potential to enhance prosthetic training. These technologies offer immersive and interactive environments that can simulate real-world scenarios, potentially improving the training experience and outcomes for prosthetic users.

Key Insights

Improved Training Outcomes with AR and VR:
- AR and VR platforms have shown promise in improving training outcomes for complex tasks, including prosthetic training, by providing immersive and interactive environments .
Enhanced Realism and User Engagement:
- AR systems can create a more realistic and engaging training experience, which can lead to better performance and higher user satisfaction compared to traditional methods .
Reduction in Training Errors:
- AR training platforms have been associated with fewer unsolved errors during training, suggesting that they may help users learn more effectively and efficiently .
Physical and Cognitive Benefits:
- Training with AR and VR can improve both physical function and cognitive engagement, making the training process more comprehensive and enjoyable for users .
Challenges and Limitations:
- Despite the benefits, there are challenges such as increased training time and potential frustration during training sessions. Additionally, the effectiveness of these technologies in translating training to real-world performance needs further validation .

Conclusion

AR and VR technologies hold significant potential for enhancing prosthetic training by providing immersive, realistic, and engaging environments. These technologies can improve training outcomes, reduce errors, and offer both physical and cognitive benefits. However, challenges such as increased training time and the need for further validation of real-world effectiveness remain. Continued research and development are essential to fully realize the benefits of AR and VR in prosthetic training.

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Augmented reality prosthetic training

Summary

Introduction

Key Insights

Conclusion

Sources and full results

Evaluating virtual reality and augmented reality training for industrial maintenance and assembly tasks

AR platforms are more effective for training industrial maintenance and assembly tasks, with fewer unsolved errors and no significant differences in performance compared to VR platforms.

Virtual Reality Pre-Prosthetic Hand Training With Physics Simulation and Robotic Force Interaction

This VR training platform improves pre-prosthetic hand training by accurately simulating an anthropomorphic prosthetic hand and utilizing an external robot arm for realistic forces, leading to improved performance and user perception.

AUGMENTED REALITY FOR ADVANCED PROSTHETIC TRAINING IN NON-AMPUTEES

Augmented reality (AR) training games, such as ARm-Strong, can improve motor function and cognitive enjoyment in non-amputees using body-powered bypass prostheses.

A novel immersive augmented reality system for prosthesis training and assessment

This augmented reality system provides a more realistic experience and improved subject performance in prosthetic training compared to traditional 2D implementations.

Virtual Reality and Augmented Reality—Translating Surgical Training into Surgical Technique

Virtual reality and augmented reality are increasingly used in orthopedic surgical training, but more evidence is needed to determine which technology improves clinical performance and the HMD industry's volatility may delay advancements.

Systematic review on the effectiveness of augmented reality applications in medical training

Augmented reality applications show promise in medical training, but more evidence is needed to support their effectiveness and validate their use in medical education.

Augmented reality assisted surgery: a urologic training tool

Augmented Reality Assisted Surgery (ARAS) on Google Glass is an educationally useful and less distracting tool for urology residents to learn how to place inflatable penile prostheses in the operating room.

Competitive Training in Spatial Augmented Reality for Prosthetic Leg Embodiment

Competitive training in Spatial Augmented Reality improves engagement and focus, but may negatively impact prosthetic leg embodiment due to increased distraction and mental workload.

Using Augmented Reality Techniques to Simulate Myoelectric Upper Limb Prostheses

Augmented Reality techniques can effectively simulate myoelectric upper limb prostheses, providing a training environment for users and therapists.

On the use of Virtual and Augmented Reality for upper limb prostheses training and simulation

Virtual and Augmented Reality techniques can help patients learn to use prosthetic devices without having to wear them, reducing mental effort and reducing patient abandonment.

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