Design of Robust Control Algorithms for Predefined-Time of Multi-agent
Systems with Distributed Sliding Mode Surfaces
Abstract
In this paper, we provide an in-depth discussion of the problem of
predefined-time formation control for Multi-Agent Systems (MAS) and
consider the presence of non-periodic Denial of Service (DoS) attacks.
The suggested approach utilizes the system state to achieve time-varying
formation of MAS within predefined-time. It effectively mitigates
external disturbance or non-periodic DoS attacks. The algorithm combines
the predefined-time Lyapunov stability theory with the Terminal Sliding
Mode Control (TSMC) is the strategy of predefined-time sliding mode
control. It creates a new distributed sliding mode surface to ensure the
speed and stability of multi-agent formation under dynamic change and
uncertainty conditions. The range of the system convergence time is
specifically linked to the changeable parameters, which simplifies the
design of the control algorithm to satisfy the appropriate requirements
for convergence time. This study demonstrates the stability of the
method through theoretical analysis and validates its effectiveness by
conducting simulations on the Matlab experimental platform. The
simulation results demonstrate that the anticipated limit of the time
required for the algorithm to achieve a stable formation is less
cautious and more resilient compared to the current TSMC algorithm.