Signatures of quantum mechanics in chaotic systems

Abstract

We consider the quantum-classical correspondence from a classical perspective by discussing the potential for chaotic systems to support behaviors normally associated with quantum mechanical systems. Our main analytical tool is a chaotic system's set of cupolets, which are essentially highly-accurate stabilizations of its unstable periodic orbits. The discussion is motivated by the bound or entangled states that we have recently detected between interacting chaotic systems, wherein pairs of cupolets are induced into a state of mutually-sustaining stabilization that can be maintained without external intervention. This state is known as chaotic entanglement as it has been shown to exhibit several properties consistent with quantum entanglement. For instance, should the interaction be disturbed, then the chaotic entanglement would be broken. In this paper, we further describe chaotic entanglement and go on to discuss the capacity for chaotic systems to exhibit other characteristics that are conventionally associated with quantum mechanics, namely analogs to wave function collapse, the measurement problem, the superposition of states, and to quantum entropy definitions. In doing so, we argue that these characteristics need not be regarded exclusively as quantum mechanical.

References in corpus (9)

• Natural Thermal and Magnetic Entanglement in 1D Heisenberg Model
• Decoherence, Chaos, and the Correspondence Principle
• Entanglement as a signature of quantum chaos
• High Temperature Macroscopic Entanglement
• Dynamical aspects of quantum entanglement for weakly coupled kicked tops
• Entanglement production in coupled chaotic systems : Case of the Kicked Tops
• Cyclical Quantum Memory for Photonic Qubits
• Chaos, entanglement and decoherence in the quantum kicked top
• The Quantum Emergence of Chaos