We discuss and clarify the concept of dephasing in the many-Hilbert-space approach to the quantum measurement problem. We argue that the phase randomization provoked by a detecting macroscopic device is responsible for the loss of quantum coherence, and that the ''collapse of the wave function'' is to be regarded as a statistical process for the accumulated distribution over many events. In stressing the fundamental differences between our approach and the Copenhagen interpretation, we counter the objections put forward by Johnston [preceding Comment, Phys. Rev. A 48, 2497 (1993)], whose stand-point is essentially similar to the Copenhagen one
Abstract We review and develop the quantum theory of measurement along the line of thought of the ...
Consider a quantum system prepared in state ψ, a unit vector in a d-dimensional Hilbert space. Let b...
Decoherence is widely felt to have something to do with the quantum measurement problem, but getting...
We discuss and clarify the concept of dephasing in the many-Hilbert-space approach to the quantum me...
The many-Hilbert-spaces approach to the measurement problem in quantum mechanics is reviewed, and th...
The many-Hilbert-space approach to the measurement problem in quantum mechanics is applied to a typi...
On the basis of the many-Hilbert-space approach to quantum measurements, we reformulate the notion o...
We review and develop the quantum theory of measurement along the line of thought of the many-Hilber...
Abstract The act of measurement on a quantum state is supposed to “dephase” (dephasing refers to the...
It is argued that the components of the superposed wave function of a measuring device, each of whic...
The idea that wave-function collapse is a physical process stems from a misunderstanding of probabil...
A quantum-mechanical measurement process is analyzed in terms of a model Hamiltonian describing the ...
We discuss the role played by the decoherence parameter in the many-Hilbert-space approach to quantu...
We numerically simulate the quantum measurement process by modeling the measuring apparatus as a one...
The quantum measurement problem is one of the most fascinating and challenging topics in physics bot...
Abstract We review and develop the quantum theory of measurement along the line of thought of the ...
Consider a quantum system prepared in state ψ, a unit vector in a d-dimensional Hilbert space. Let b...
Decoherence is widely felt to have something to do with the quantum measurement problem, but getting...
We discuss and clarify the concept of dephasing in the many-Hilbert-space approach to the quantum me...
The many-Hilbert-spaces approach to the measurement problem in quantum mechanics is reviewed, and th...
The many-Hilbert-space approach to the measurement problem in quantum mechanics is applied to a typi...
On the basis of the many-Hilbert-space approach to quantum measurements, we reformulate the notion o...
We review and develop the quantum theory of measurement along the line of thought of the many-Hilber...
Abstract The act of measurement on a quantum state is supposed to “dephase” (dephasing refers to the...
It is argued that the components of the superposed wave function of a measuring device, each of whic...
The idea that wave-function collapse is a physical process stems from a misunderstanding of probabil...
A quantum-mechanical measurement process is analyzed in terms of a model Hamiltonian describing the ...
We discuss the role played by the decoherence parameter in the many-Hilbert-space approach to quantu...
We numerically simulate the quantum measurement process by modeling the measuring apparatus as a one...
The quantum measurement problem is one of the most fascinating and challenging topics in physics bot...
Abstract We review and develop the quantum theory of measurement along the line of thought of the ...
Consider a quantum system prepared in state ψ, a unit vector in a d-dimensional Hilbert space. Let b...
Decoherence is widely felt to have something to do with the quantum measurement problem, but getting...