polynomial optimal trajectory planning and obstacle aviodance for omni-directional mobile robots in dynamic environments
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abstract
this paper presents a parameterization method to optimal trajectory planning and dynamic obstacle avoidance for omni-directional robots. the aim of trajectory planning is minimizing a quadratic cost function while a maximum limitation on velocity and acceleration of robot is considered. first, we parameterize the trajectory using polynomial functions with unknown coefficients which transforms trajectory planning to an optimization problem. then we use a novel method to solving the optimization problem and obtaining the unknown parameters. finally, the efficiency of proposed approach is confirmed by simulation.
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Journal title:
the modares journal of electrical engineeringPublisher: tarbiat modares university
ISSN 2228-527 X
volume 12
issue 3 2015
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