The Classical-to-Quantum Transition with Broadband Four-Wave Mixing
arXiv:1412.0182 · doi:10.1103/PhysRevLett.114.063902
Abstract
A key question of quantum optics is how nonclassical bi-photon correlations at low power evolve into classical coherence at high-power. Direct observation of the crossover from quantum to classical behavior is desirable, but difficult due to the lack of adequate experimental techniques that cover the ultra-wide dynamic range in photon flux from the single photon regime to the classical level. We investigate bi-photon correlations within the spectrum of light generated by broadband four-wave mixing (FWM) over a \emph{large dynamic range of in photon flux} across the classical-to-quantum transition using a two-photon interference effect that distinguishes between classical and quantum behavior. We explore the quantum-classical nature of the light by observing the interference contrast dependence on internal loss and demonstrate quantum collapse and revival of the interference when the FWM gain in the fiber becomes imaginary.
References in corpus (4)
- Ultra-pure RF tone from a micro-ring resonator based optical frequency comb source
- Nonlinear interactions with an ultrahigh flux of broadband entangled photons
- Direct Production of Tripartite Pump-Signal-Idler Entanglement in the Above-Threshold Optical Parametric Oscillator
- Theory of Two-Photon Interactions with Broadband Down-Converted Light and Entangled Photons
Cited by in corpus (11)
- Quantum-Enhanced Sensing Based on Time Reversal of Nonlinear Dynamics
- Quantum Fourier-transform infrared spectroscopy in the fingerprint region
- Squeezing-enhanced Raman spectroscopy
- Bright squeezed vacuum in a nonlinear interferometer: frequency/temporal Schmidt-mode description
- Augmenting the Sensing Performance of Entangled Photon Pairs through Asymmetry
- Biphoton shaping with cascaded entangled-photon sources
- Classical-to-quantum crossover in electron on-demand emission
- Active SU(1,1) atom interferometry
- Rabi oscillations of two-photon states in nonlinear optical resonators
- Characterizing micro-macro transitions with an atomic-vapor-based linear optical amplifier
- Lifting the Bandwidth Limit of Optical Homodyne Measurement