Self-reproducing dynamics in a two-dimensional discrete map

This paper mainly explores the self-reproducing dynamics in discrete-time system by constructing a two-dimension map with infinitely many fixed points. Theoretical analysis shows that the attractor of the map can not only be non-destructively reproduced by the initial values of all state variables along all axis directions, but can also be non-destructively reproduced by the parameter along all axis directions. The numerical simulations of bifurcation diagram, Lyapunov exponent, phase portrait and iterative sequence are carried out to further confirm the theoretical results. The self-reproducing behavior of different type of attractors and the corresponding iterative sequences are also confirmed by the experimental measurements performed on the DSP-based platform. This map is especially suitable for chaos-based engineering applications since the offset can be periodically switched by the initial condition and parameter on the premise of keeping robust dynamical behavior.

Automated summary

This paper investigates the self-reproducing dynamics in discrete-time system by constructing a two-dimensional map with infinitely many fixed points. Theoretical analysis and numerical simulations confirm that the attractor of the map can be non-destructively reproduced by initial values and parameters along all axis directions. Experimental measurements on a DSP-based platform validate the self-reproducing behavior of different types of attractors.