Develop an iterative approach to optimize vehicle pose trajectory based on the balance between minimum distance and minimum curvature.
Use dynamic programming technique to generate optimal velocity profile for the optimized vehicle pose trajectory with the constraint of maximum tire-force
' Reduce Global Hybrid A*'s searching time by controlling sampling distances and sampling steps. Enhance robot ability to navigate in partially-unknown with lower computation needed. '
Perform detailed analysis on the effect of altering search distances and sample steps of global hybrid A* algorithm.
Compare the new algorithm's result with D* Lite, A* and Hybrid A* in both holonomic and non-holonomic motion constraints scenario.
Tested on Unmanned Aerial Drone and Autonomous RC car.
Language, package and platform used in this project: ROS, Python, MATLAB
' This project is a partial fulfillment of CPSC-8810 Motion Planning Course in Clemson University. The main purpose of this project is to test two types of velocity-based collision avoidance algorithms (velocity-obstacle and power-law model). '
Build velocity obstacle and power-law model in python.
Test both 8-agents and multiple agents case with different start/goal states
Language, package and platform used in this project: Python, Numpy, Tkinter