Home /Research /Wheeled Mobile Robot RBFNN Dynamic Surface Control Based on Disturbance Observer
LEARNING

Wheeled Mobile Robot RBFNN Dynamic Surface Control Based on Disturbance Observer

Shaohua Luo, Songli Wu, Zhaoqin Liu, Hao Guan

Year
2014
Citations
16
Access
Open access

Abstract

This paper focuses on the problem of an adaptive neural network dynamic surface control (DSC) based on disturbance observer for the wheeled mobile robot with uncertain parameters and unknown disturbances. The nonlinear observer is used to compensate for the external disturbance, and the neural network is employed to approximate the uncertain and nonlinear items of system. Then, the Lyapunov theory is introduced to demonstrate the stabilization of the proposed control algorithm. Finally, the simulation results illustrate that the proposed algorithm not only is superior to conventional DSC in trajectory tracking and external friction disturbance compensation but also has better response, adaptive ability, and robustness.

Keywords

Control theory (sociology)Mobile robotComputer scienceRobustness (evolution)Nonlinear systemDisturbance (geology)Artificial neural networkLyapunov functionLyapunov stabilityCompensation (psychology)

Related papers

Browse all LEARNING papers