A blazing fast hexapod robot simulator for the web that solves inverse kinematics and simulates gaits in real-time.
Mithi's Hexapod is a web-based hexapod robot simulator that enables users to solve inverse and forward kinematics, simulate various walking gaits, and control robot poses in real-time. It performs all computations directly in the browser without external libraries, making it fast and interactive. The tool is designed for robotics enthusiasts, educators, and developers interested in hexapod motion planning and simulation.
Robotics hobbyists, educators, and developers working on hexapod robots or kinematics algorithms who need a visual, interactive simulation tool.
It offers a dependency-free, browser-native simulation environment with real-time performance, eliminating the need for external mathematics libraries or server-side processing.
Blazing fast hexapod robot simulator for the web.
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Uses only JavaScript's built-in Math object for all calculations, ensuring no external library dependencies and fast, browser-native performance as emphasized in the README.
Allows dynamic adjustment of robot dimensions, orientation, and stance with immediate visual feedback, enabling hands-on experimentation with hexapod poses.
Includes both inverse and forward kinematics solvers for hexapods, facilitating accurate pose calculation and joint angle analysis directly in the browser.
Simulates standard ripple and tripod gaits for walking and rotation, providing a practical tool for testing movement patterns without custom coding.
Focused solely on hexapod robots, making it unsuitable for simulating other robotic configurations or platforms, which limits its general applicability.
Does not incorporate collision detection, dynamics, or environmental interactions, reducing realism for simulations requiring physical accuracy.
As a standalone web app, it lacks native support for integration with common robotics frameworks like ROS or hardware APIs, hindering broader use in production environments.