Direct calibration of click-counting detectors
arXiv:1611.04779 · doi:10.1103/PhysRevA.95.033806
Abstract
We introduce and experimentally implement a method for the absolute detector calibration of photon-number-resolving time-bin multiplexing layouts based on the measured click statistics of superconduncting nanowire detectors. In particular, the quantum efficiencies, the dark count rates, and the positive operator-valued measures of these measurement schemes are directly obtained with high accuracy. The method is based on the moments of the click-counting statistics for coherent states with different coherent amplitudes. The strength of our analysis is that we can directly conclude -- on a quantitative basis -- that the detection strategy under study is well described by a linear response function for the light-matter interaction and that it is sensitive to the polarization of the incident light field. Moreover, our method is further extended to a two-mode detection scenario. Finally, we present possible applications for such well characterized detectors, such as sensing of atmospheric loss channels and phase sensitive measurements.
References in corpus (17)
- Superconducting nanowire single-photon detectors: physics and applications
- Measuring measurement
- Photon number resolution using a time-multiplexed single-photon detector
- Direct observation of non-classical photon statistics in parametric downconversion
- Entanglement of Gaussian states and the applicability to quantum key distribution over fading channels
- Quantum light in the turbulent atmosphere
- Measuring Measurement: Theory and Practice
- Feasibility of free space quantum key distribution with coherent polarization states
- Realization of the purely spatial Einstein-Podolsky-Rosen paradox in full-field images of spontaneous parametric down conversion
- Quantum state engineering by click counting
- Uncovering Quantum Correlations with Time-Multiplexed Click Detection
- Observing optical coherence across Fock layers with weak-field homodyne detectors
- A proposed testbed for detector tomography
- Nonclassicality Phase-Space Functions: More Insight with Fewer Detectors
- Probing higher order correlations of the photon field with photon number resolving avalanche photodiodes
- Higher-order nonclassical effects in fluctuating-loss channels
- Balanced homodyne detection with on-off detector systems: Observable nonclassicality criteria