Practical application of pseudospectral optimization to robot path planning


Autoria(s): Martin, Steven Colin; Hillier, Nick; Corke, Peter
Contribuinte(s)

Wyeth, Gordon

Upcroft, Ben

Data(s)

01/12/2010

Resumo

To obtain minimum time or minimum energy trajectories for robots it is necessary to employ planning methods which adequately consider the platform’s dynamic properties. A variety of sampling, graph-based or local receding-horizon optimisation methods have previously been proposed. These typically use simplified kino-dynamic models to avoid the significant computational burden of solving this problem in a high dimensional state-space. In this paper we investigate solutions from the class of pseudospectral optimisation methods which have grown in favour amongst the optimal control community in recent years. These methods have high computational efficiency and rapid convergence properties. We present a practical application of such an approach to the robot path planning problem to provide a trajectory considering the robot’s dynamic properties. We extend the existing literature by augmenting the path constraints with sensed obstacles rather than predefined analytical functions to enable real world application.

Formato

application/pdf

Identificador

http://eprints.qut.edu.au/41075/

Publicador

Australian Robotics & Automation Association

Relação

http://eprints.qut.edu.au/41075/4/40030.pdf

http://www.araa.asn.au/acra/acra2010/index.html

Martin, Steven Colin, Hillier, Nick, & Corke, Peter (2010) Practical application of pseudospectral optimization to robot path planning. In Wyeth, Gordon & Upcroft, Ben (Eds.) Australasian Conference on Robotics and Automation 2010, Australian Robotics & Automation Association, Brisbane, Queensland.

Direitos

Copyright 2010 Australian Robotics & Automation Association

Fonte

Faculty of Built Environment and Engineering; School of Engineering Systems

Palavras-Chave #080110 Simulation and Modelling #path planning #pseudospectral #optimization #ROS #robot
Tipo

Conference Paper