Quantum White Noises and The Master Equation for Gaussian Reference States
John Edward Gough
Abstract
Open-access reader
John Edward Gough
Abstract
Open-access reader
We show that a basic quantum white noise process formally reproduces quantum stochastic calculus when the appropriate normal / chronological orderings are prescribed. By normal ordering techniques for integral equations and a generalization of the Araki-Woods representation, we derive the master and random Heisenberg equations for an arbitrary Gaussian state: this includes thermal and squeezed states.
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We show that a basic quantum white noise process formally reproduces quantum stochastic calculus when the appropriate normal / chronological orderings are prescribed. By normal ordering techniques for integral equations and a generalization of the Araki-Woods representation, we derive the master and random Heisenberg equations for an arbitrary Gaussian state: this includes thermal and squeezed states.
Key concepts: Master equation, Quantum stochastic calculus, White noise, Generalization, Additive white Gaussian noise, Gaussian, Mathematics, Quantum state