This work discusses quantum states defined in a finite-dimensional Hilbert space. In particular, after the presentation of some of them and their basic properties the work concentrates on the group of the quantum optical models that can be referred to as quantum optical scissors. Such ”devices” can generate on their outputs states that are finite-dimensional, and simultaneously use for such preparation quantum states that are defined in the infinity-dimensional space. The work concentrates on two groups of models: the first one, comprising linear elements and the second one – models for which optical, Kerr-like nonlinear elements were applied.
summary:We analyze finitely additive orthogonal states whose values lie in a real Hilbert space. We ...
We propose an alternative scheme to generate the W state via optical state truncation using quantum ...
We study a class of nonlinear Hamiltonians, with applications in quantum optics. The interaction ter...
We give a recipe for how to generate various harmonic oscillator states formally defined in finite-d...
The interest in quantum-optical states confined in finite-dimensional Hilbert spaces has recently be...
The study described in this paper focuses on a model featuring two nonlinear oscillators, which are ...
The quantum mechanical formalism for position and momentum of a particle in a one dimensional cyclic...
We analyze truncation of coherent states up to a single-photon Fock state by applying linear quantum...
We present a new characterization of quantum states, what we call Projected Entangled-Pair States (P...
International audienceThe quantum observables used in the case of quantum systems with finite-dimens...
We present a generalization of quantum error correction to infinite-dimensional Hilbert spaces. We f...
International audienceWe obtain an exact matrix-product-state (MPS) representation of a large series...
The quantum marginal problem asks the question if elements of a given set of quantum states can be r...
The idea that symmetries simplify or reduce the complexity of a system has been remarkably fruitful ...
We present a new characterization of quantum states, what we call Projected Entangled-Pair States (P...
summary:We analyze finitely additive orthogonal states whose values lie in a real Hilbert space. We ...
We propose an alternative scheme to generate the W state via optical state truncation using quantum ...
We study a class of nonlinear Hamiltonians, with applications in quantum optics. The interaction ter...
We give a recipe for how to generate various harmonic oscillator states formally defined in finite-d...
The interest in quantum-optical states confined in finite-dimensional Hilbert spaces has recently be...
The study described in this paper focuses on a model featuring two nonlinear oscillators, which are ...
The quantum mechanical formalism for position and momentum of a particle in a one dimensional cyclic...
We analyze truncation of coherent states up to a single-photon Fock state by applying linear quantum...
We present a new characterization of quantum states, what we call Projected Entangled-Pair States (P...
International audienceThe quantum observables used in the case of quantum systems with finite-dimens...
We present a generalization of quantum error correction to infinite-dimensional Hilbert spaces. We f...
International audienceWe obtain an exact matrix-product-state (MPS) representation of a large series...
The quantum marginal problem asks the question if elements of a given set of quantum states can be r...
The idea that symmetries simplify or reduce the complexity of a system has been remarkably fruitful ...
We present a new characterization of quantum states, what we call Projected Entangled-Pair States (P...
summary:We analyze finitely additive orthogonal states whose values lie in a real Hilbert space. We ...
We propose an alternative scheme to generate the W state via optical state truncation using quantum ...
We study a class of nonlinear Hamiltonians, with applications in quantum optics. The interaction ter...