Certifying The Quantumness of A Generalized Coherent Control Scenario
arXiv:1305.4586 · doi:10.1063/1.4902253
Abstract
We consider the role of quantum mechanics in a specific coherent control scenario, designing a "coherent control interferometer" as the essential tool that links coherent control to quantum fundamentals. Building upon this allows us to rigorously display the genuinely quantum nature of a generalized weak-field coherent control scenario (utilizing 1 vs. 2 photon excitation) via a Bell-CHSH test. Specifically, we propose an implementation of "quantum delayed-choice" in a bichromatic alkali atom photoionization experiment. The experimenter can choose between two complementary situations, which are characterized by a random photoelectron spin polarization with particle-like behaviour on the one hand, and by spin controllability and wave-like nature on the other. Because these two choices are conditioned coherently on states of the driving fields, it becomes physically unknowable, prior to measurement, whether there is control over the spin or not.
9 pages, 4 figures, comments welcome!
References in corpus (9)
- Entanglement detection
- A quantum delayed choice experiment
- Entanglement-enabled delayed choice experiment
- GHZ-type and W-type entangled coherent states: generation and Bell-type inequality tests without photon counting
- NMR implementation of Quantum Delayed-Choice Experiment
- Experimental analysis of the quantum complementarity principle
- Minimum requirements for laser-induced symmetry breaking in quantum and classical mechanics
- Mechanisms in Environmentally-Assisted One-photon Phase Control
- Bell inequality test with entanglement between an atom and a coherent state in a cavity