2021ComplexityOpen access

Symbolic Encoding of Periodic Orbits and Chaos in the Rucklidge System

Chengwei Dong, Lian Jia, Qi Jie, Hantao Li

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Abstract

To describe and analyze the unstable periodic orbits of the Rucklidge system, a so‐called symbolic encoding method is introduced, which has been proven to be an efficient tool to explore the topological properties concealed in these periodic orbits. In this work, the unstable periodic orbits up to a certain topological length in the Rucklidge system are systematically investigated via a proposed variational method. The dynamics in the Rucklidge system are explored by using phase portrait analysis, Lyapunov exponents, and Poincaré first return maps. Symbolic encodings of the periodic orbits with two and four letters based on the trajectory topology in the phase space are implemented under two sets of parameter values. Meanwhile, the bifurcations of the periodic orbits are explored, significantly improving the understanding of the dynamics of the Rucklidge system. The multiple‐letter symbolic encoding method could also be applicable to other nonlinear dynamical systems.

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What this paper is about

To describe and analyze the unstable periodic orbits of the Rucklidge system, a so‐called symbolic encoding method is introduced, which has been proven to be an efficient tool to explore the topological properties concealed in these periodic orbits. In this work, the unstable periodic orbits up to a certain topological length in the Rucklidge system are systematically investigated via a proposed variational method. The dynamics in the Rucklidge system are explored by using phase portrait analysis, Lyapunov exponents, and Poincaré first return maps. Symbolic encodings of the periodic orbits with two and four letters based on the trajectory topology in the phase space are implemented under two sets of parameter values. Meanwhile, the bifurcations of the periodic orbits are explored, significantly improving the understanding of the dynamics of the Rucklidge system. The multiple‐letter symbolic encoding method could also be applicable to other nonlinear dynamical systems.

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Available abstract

To describe and analyze the unstable periodic orbits of the Rucklidge system, a so‐called symbolic encoding method is introduced, which has been proven to be an efficient tool to explore the topological properties concealed in these periodic orbits. In this work, the unstable periodic orbits up to a certain topological length in the Rucklidge system are systematically investigated via a proposed variational method. The dynamics in the Rucklidge system are explored by using phase portrait analysis, Lyapunov exponents, and Poincaré first return maps. Symbolic encodings of the periodic orbits with two and four letters based on the trajectory topology in the phase space are implemented under two sets of parameter values. Meanwhile, the bifurcations of the periodic orbits are explored, significantly improving the understanding of the dynamics of the Rucklidge system. The multiple‐letter symbolic encoding method could also be applicable to other nonlinear dynamical systems.

Key concepts: CHAOS (operating system), Encoding (memory), Periodic orbits, Computer science, Symbolic dynamics, Mathematics, Pure mathematics, Mathematical analysis

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