4.7 Article

Global Analysis, Multi-stability and Synchronization in a Competition Model of Public Enterprises with Consumer Surplus

Journal

CHAOS SOLITONS & FRACTALS
Volume 143, Issue -, Pages -

Publisher

PERGAMON-ELSEVIER SCIENCE LTD
DOI: 10.1016/j.chaos.2020.110604

Keywords

Cournot Competition Game; Consumer Surplus; Critical Curves; Global Bifurcations; Multi-stability; Synchronization

Funding

  1. Young Scholars Science Foundation of Lanzhou Jiaotong University [2015029]
  2. Talents Innovation and Entrepreneurship Project of Lanzhou City [2015-RC-3]

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The study focuses on global dynamic behaviors, multi-stability and synchronization in a dynamic duopoly Cournotian model. It explores the stability of equilibrium points, complex dynamical phenomena, and the presence of multiple attractors. The analysis of a non-invertible two-dimensional map and the discussion on synchronization along the invariant diagonal are key components of the research.
We research global dynamic behaviors, multi-stability and synchronization in a dynamic duopoly Cournotian model with consumer surplus on the basis of nonlinear demand function and bounded rationality. This game generalizes the traditional dynamic duopoly Cournot game. The aim of enterprises is to optimize their own profits and the social welfare. This game is characterized by discrete difference equations incorporated in the competition model's optimization problem. The stability of equilibrium points and complicated dynamical phenomena are studied, such as flip bifurcation for unique Nash equilibrium point. The global bifurcation of non-invertible two-dimensional map is analyzed through critical curves, which is an important method to further study global properties. Multi-stability is observed due to the presence of multiple complex attractors. An inspection of the basins of attraction is provided for the situation of several attractors coexisting. Since this game has symmetry, it can be stated that a one-dimensional invariant sub-manifold is the diagonal of the system by analyzing the nonlinear map x(t + 1) = mu x(t)(1 - root x(t)). The properties of this nonlinear map is completely different from the logistic map although both of them have similar form. Along the invariant diagonal, the synchronization phenomenon of the game is discussed in the end. (C) 2020 Elsevier Ltd. All rights reserved.

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