Exploring Energy-Time Entanglement Using Geometric Phase
arXiv:1711.05079 · doi:10.1103/PhysRevLett.101.180405
Abstract
Using the signal and idler photons produced by parametric downconversion, we report an experimental observation of a violation of the Bell inequality for energy and time based purely on the geometric phases of the signal and idler photons. We thus show that energy-time entanglement between the signal and idler photons can be explored by means of their geometric phases. These results may have important practical implications for quantum information science by providing an additional means by which entanglement can be manipulated.
4 pages, 3 figures
References in corpus (6)
- Bell Inequalities and the Separability Criterion
- Generation of Hyperentangled Photons Pairs
- All-Versus-Nothing Violation of Local Realism by Two-Photon, Four-Dimensional Entanglement
- Realization and characterization of a 2-photon 4-qubit linear cluster state
- "All-versus-nothing" nonlocality test of quantum mechanics by two-photon hyperentanglement
- Temporal Coherence and Indistinguishability in Two-Photon Interference Effects
Cited by in corpus (17)
- Overcoming Noise in Entanglement Distribution
- Measurements in two bases are sufficient for certifying high-dimensional entanglement
- Measuring azimuthal and radial modes of photons
- Quantum-secured imaging
- Compressive Object Tracking using Entangled Photons
- Is high-dimensional photonic entanglement robust to noise?
- Layered Quantum Key Distribution
- Quantum communication with photons
- Quantum key distribution with quantum walks
- Asymmetric delay attack on an entanglement-based bidirectional clock synchronization protocol
- High-dimensional coherent one-way quantum key distribution
- Energy-time and time-bin entanglement: past, present and future
- Transfer of temporal coherence in parametric down-conversion
- Characterising and Tailoring Spatial Correlations in Multi-Mode Parametric Downconversion
- Precisely resolve energy-time entanglement by dual channel Fabry-Perot interferometry
- Resource-efficient entanglement detection in high-dimensional states via two-qubit witnesses
- Noise-Resilient Imaging through Coherence Filtering