Ablay, Gunyaz2023-08-042023-08-0420141751-86521751-8644WOS:000345701200013https://doi.org/10.1049/iet-cta.2014.0138https://hdl.handle.net/20.500.12573/1693A coefficient ratio-based sliding surface algorithm and an integral sliding mode control approach are proposed for multivariable dynamical systems. The sliding surface design problem is reduced to the specification of the desired time constant of closed-loop systems. The proposed scheme is able to accomplish a non-overshoot transient response and a short settling time for multivariable systems. The resulting sliding surfaces are robust and optimal in the existence of parameter perturbations. An integral sliding mode control approach is also developed for robust tracking by using the coefficient ratio-based robust sliding surface designs. The developed methods are implemented on a flexible robotic manipulator and a strike aircraft system, and the numerical simulation results are provided in order to show the validity and feasibility of the methods.enginfo:eu-repo/semantics/closedAccessrobust controlvariable structure systemstransient responseoptimal controlcontrol system synthesismultivariable control systemsclosed loop systemsflexible manipulatorsaircraft controlcoefficient ratio-based robust sliding surface algorithmintegral sliding mode control design approachoptimal transient responsesmultivariable dynamical systemsclosed-loop systemsnonovershoot transient responsesettling timeparameter perturbationsrobust trackingflexible robotic manipulatorstrike aircraft systemnumerical simulationCoefficient ratios-based robust sliding surface and integral sliding mode control designs with optimal transient responsesarticle81718961904