We examine whether the Stokes parameters of a two-mode electromagnetic field results from the superposition of the spins of the photons it contains. To this end we express any n-photon state as the result of the action on the vacuum of n creation operators generating photons which can have may different polarization states in general. We find that the macroscopic polarization holds as sum of the single-photon Stokes parameters only for the SU(2) orbits of photon-number states. The states that lack this property are entangled in every basis of independent field modes, so this is a class of entanglement beyond the reach of SU(2) transformations
We present a moment expansion for the systematic characterization of the polarization properties of ...
Using stimulated emission tomography, we characterize an entangled photon-pair source in the energy ...
A scheme to distinguish entangled two-photon-polarization (ETP) states from two independent entangle...
Polarization has been used extensively in quantum information processing, and quantum entanglement i...
We study the polarization properties of three-dimensional quantum light fields by using the Stokes o...
The characterization of quantum polarization of light requires knowledge of all the moments of the S...
Quantum optics entails polarization properties that cannot be fully described by the classical Stoke...
We demonstrate experimental excitation-manifold-resolved polarization characterization of quantum st...
The degree of polarization of a quantum state can be defined as its Hilbert-Schmidt distance to the ...
It is shown that the description of polarization based on quantization of classical Stokes parameter...
Entangled photon pairs—discrete light quanta that exhibit non-classical correlations—play a crucial ...
We show that any pure, two-mode, N-photon state with N odd or equal to two can be transformed into a...
Entangled photon pairs—discrete light quanta that exhibit non-classical correlations—play a crucial ...
For a dipole radiation, the set of generalized Stokes parameters and corresponding Stokes operators ...
Quantum state tomography (QST), the process through which the density matrix of a quantum system is ...
We present a moment expansion for the systematic characterization of the polarization properties of ...
Using stimulated emission tomography, we characterize an entangled photon-pair source in the energy ...
A scheme to distinguish entangled two-photon-polarization (ETP) states from two independent entangle...
Polarization has been used extensively in quantum information processing, and quantum entanglement i...
We study the polarization properties of three-dimensional quantum light fields by using the Stokes o...
The characterization of quantum polarization of light requires knowledge of all the moments of the S...
Quantum optics entails polarization properties that cannot be fully described by the classical Stoke...
We demonstrate experimental excitation-manifold-resolved polarization characterization of quantum st...
The degree of polarization of a quantum state can be defined as its Hilbert-Schmidt distance to the ...
It is shown that the description of polarization based on quantization of classical Stokes parameter...
Entangled photon pairs—discrete light quanta that exhibit non-classical correlations—play a crucial ...
We show that any pure, two-mode, N-photon state with N odd or equal to two can be transformed into a...
Entangled photon pairs—discrete light quanta that exhibit non-classical correlations—play a crucial ...
For a dipole radiation, the set of generalized Stokes parameters and corresponding Stokes operators ...
Quantum state tomography (QST), the process through which the density matrix of a quantum system is ...
We present a moment expansion for the systematic characterization of the polarization properties of ...
Using stimulated emission tomography, we characterize an entangled photon-pair source in the energy ...
A scheme to distinguish entangled two-photon-polarization (ETP) states from two independent entangle...