We demonstrate that the Wigner function of a pure quantum state is a wave function in a specially tuned Dirac bra-ket formalism and argue that the Wigner function is in fact a probability amplitude for the quantum particle to be at a certain point of the classical phase space. Additionally, we establish that in the classical limit, the Wigner function transforms into a classical Koopman-von Neumann wave function rather than into a classical probability distribution. Since probability amplitude need not be positive, our findings provide an alternative outlook on the Wigner function’s negativity
We treat a pulse of quadratic potential,i.e.,the spatial part is quadratic function and the temporal...
Using the formalism of dynamical maps it is shown that if a quantum measurement process is to be des...
The Wigner representation of a quantum state, corresponding to a classically integrable Hamiltonian,...
The Wigner function of quantum systems is an effective instrument to construct the approximate class...
The Fermi gF(x,p) function provides a phase space description of quantum mechanics conceptually diff...
In the beginning of the 1950’s, Wigner introduced a fundamental deformation from the canonical quant...
Wódkiewicz1 has derived an operational formula for a positive phase-space distribution function in q...
ABSTRACT. We show that the quantum wavefunction, interpreted as the probability density of finding a...
We discuss two sets of conditions that are necessary and sufficient for a function defined on phase ...
The relation of theWigner function with the fair probability distribution called tomographic distrib...
An expression for the Wigner distribution function valid for systems of bosons or fermions is obtain...
We discuss the phase-space representation of the Bloch equation and present analytic expressions for...
The KLM conditions are conditions that are necessary and sufficient for a phase-space function to be...
We discuss a family of quasi-distributions (s-ordered Wigner functions of Agarwal and Wolf) and its ...
We define the Wigner entropy of a quantum state as the differential Shannon entropy of the Wigner fu...
We treat a pulse of quadratic potential,i.e.,the spatial part is quadratic function and the temporal...
Using the formalism of dynamical maps it is shown that if a quantum measurement process is to be des...
The Wigner representation of a quantum state, corresponding to a classically integrable Hamiltonian,...
The Wigner function of quantum systems is an effective instrument to construct the approximate class...
The Fermi gF(x,p) function provides a phase space description of quantum mechanics conceptually diff...
In the beginning of the 1950’s, Wigner introduced a fundamental deformation from the canonical quant...
Wódkiewicz1 has derived an operational formula for a positive phase-space distribution function in q...
ABSTRACT. We show that the quantum wavefunction, interpreted as the probability density of finding a...
We discuss two sets of conditions that are necessary and sufficient for a function defined on phase ...
The relation of theWigner function with the fair probability distribution called tomographic distrib...
An expression for the Wigner distribution function valid for systems of bosons or fermions is obtain...
We discuss the phase-space representation of the Bloch equation and present analytic expressions for...
The KLM conditions are conditions that are necessary and sufficient for a phase-space function to be...
We discuss a family of quasi-distributions (s-ordered Wigner functions of Agarwal and Wolf) and its ...
We define the Wigner entropy of a quantum state as the differential Shannon entropy of the Wigner fu...
We treat a pulse of quadratic potential,i.e.,the spatial part is quadratic function and the temporal...
Using the formalism of dynamical maps it is shown that if a quantum measurement process is to be des...
The Wigner representation of a quantum state, corresponding to a classically integrable Hamiltonian,...