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Driving systems with chaotic signals

Physical Review A · 1991 · Vol. 44(4) · pp. 2374–2383
Louis M. PecoraThomas L. Carroll

Abstract

We generalize the idea of driving a stable system to the situation when the drive signal is chaotic. This leads to the concept of conditional Lyapunov exponents and also generalizes the usual criteria of the linear stability theorem. We show that driving with chaotic signals can be done in a robust fashion, rather insensitive to changes in system parameters. The calculation of the stability criteria leads naturally to an estimate for the convergence of the driven system to its stable state. We focus on a homogeneous driving situation that leads to the construction of synchronized chaotic subsystems. We apply these ideas to the Lorenz and R\"ossler systems, as well as to an electronic circuit and its numerical model.

Chaos control and synchronizationQuantum chaos and dynamical systemsNonlinear Dynamics and Pattern FormationChaoticPhysicsLyapunov exponentStability (learning theory)Focus (optics)Lorenz systemConvergence (economics)Lyapunov stabilityChaotic systemsState (computer science)
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References
A Comprehensive Introduction to Differential Geometry.
American Mathematical Monthly · 1973 · 3,512 citations
Synchronization in chaotic systems
Physical Review Letters · 1990 · 10,501 citations
Ergodic theory of chaos and strange attractors
Reviews of Modern Physics · 1985 · 4,848 citations
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