Validation of a Classical Sliding Mode Control Applied to a Physical Robotic Arm with Six Degrees of Freedom
Andres González-Rodríguez, Rogelio E. Baray-Arana, Abraham Efraím Rodriguez-Mata, Isidro Robledo-Vega, Pedro Rafael Acosta Cano de los Ríos
- Year
- 2022
- Citations
- 7
- Access
- Open access
Abstract
The control of robotic manipulators has become increasingly difficult over recent years due to their high accuracy, performance, speed, and reliability in a variety of applications, such as industry, medicine, research, etc. These serial manipulator systems are extremely complex because their dynamic models include perturbations, parametric variations, coupled nonlinear dynamics, and non-modular dynamics, all of which require robust control for trajectory tracking. This paper compares two control techniques: computational torque control (CTC) and sliding mode control (SMC). In this study, the latter was used for a physical robotic arm with six degrees of freedom (DOF) and online experiments were conducted, which have received little attention in the literature. As a result, the contribution of this work was based on the real-time application of this controller via a self-developing interface. The great resilience of sliding mode controllers to disturbances was also demonstrated in this study.
Keywords
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