
doi: 10.3390/math11102295
In this paper, a modified distributed Nash equilibrium seeking problem with input saturation has been investigated. The payoff function of each player is related to the communication topology, which is closer to the actual scenes. The sigmoid function is utilized to limit the range of the input. Through the network communication between players and the gradient of the players’ payoff functions, the finite-time and fixed-time distributed Nash equilibrium seeking protocols with input saturation are given. Using the Lyapunov stability analysis, it is determined that the action of each player converges to the Nash equilibrium if all the players update their action according to the proposed algorithms. The numerical simulations are also provided to testify the algorithms.
sigmoid function, input saturation, non-cooperative game, QA1-939, finite time, Nash equilibrium; input saturation; finite time; sigmoid function; non-cooperative game; Lyapunov stability analysis, Lyapunov stability analysis, Nash equilibrium, Mathematics
sigmoid function, input saturation, non-cooperative game, QA1-939, finite time, Nash equilibrium; input saturation; finite time; sigmoid function; non-cooperative game; Lyapunov stability analysis, Lyapunov stability analysis, Nash equilibrium, Mathematics
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