Analysis of the Snake Robot Kinematics with Virtual Reality Visualisation.

Area of Science:

• Engineering Simulation
• Robotics
• Human-Computer Interaction

Background:

• Traditional engineering simulations often lack holistic system understanding and interactive capabilities.
• Visualizing complex dynamic systems, like robot motion, can be challenging with standard 2D plots or 3D animations.

Purpose of the Study:

• To present a novel synesthetic design approach for interactive engineering simulations.
• To enhance the holistic understanding and interaction with simulated systems.
• To facilitate the analysis and design of systems, specifically a snake robot.

Main Methods:

• Employing a synesthetic design approach integrating engineering simulation software with 3D visualization and a Virtual Reality (VR) headset.
• Simulating the dynamic movement of a snake robot on a flat surface.
• Comparing the proposed VR-based method with standard visualization techniques (2D plots, 3D animations).

Main Results:

• The synesthetic approach provides a more holistic view of system behavior compared to traditional methods.
• Users can interact with and modify simulation parameters directly within the VR environment.
• The immersive VR experience facilitates a deeper analysis and understanding of the snake robot's motion.

Conclusions:

• The proposed interactive VR simulation environment significantly improves the analysis and design process for complex engineering systems.
• Synesthetic design principles, when applied to engineering simulations, offer a powerful tool for researchers and designers.
• This novel approach demonstrates the potential of immersive technologies in advancing engineering simulation capabilities.