Quantum Stratonovich Stochastic Calculus and the Quantum Wong-Zakai Theorem
arXiv:math-ph/0511046 · doi:10.1063/1.2354331
Abstract
We extend the Ito -to- Stratonovich analysis or quantum stochastic differential equations, introduced by Gardiner and Collett for emission (creation), absorption (annihilation) processes, to include scattering (conservation) processes. Working within the framework of quantum stochastic calculus, we define Stratonovich calculus as an algebraic modification of the Ito one and give conditions for the existence of Stratonovich time-ordered exponentials. We show that conversion formula for the coefficients has a striking resemblance to Green's function formulae from standard perturbation theory. We show that the calculus conveniently describes the Markov limit of regular open quantum dynamical systemsin much the same way as in the Wong-Zakai approximation theorems of classical stochastic analysis. We extend previous limit results to multiple-dimensions with a proof that makes use of diagrammatic conventions.
24 pages
References in corpus (11)
- Feedback control of quantum state reduction
- All-optical versus electro-optical quantum-limited feedback
- Bellman equations for optimal feedback control of qubit states
- Hamilton-Jacobi-Bellman equations for Quantum Filtering and Control
- The Langevin equation from Markovian Quantum Central Limits
- Quantum Flows as Markovian Limit of Emission, Absorption and Scattering Interactions
- Asymptotic Stochastic Transformations for Nonlinear Quantum Dynamical Systems
- Quantum White Noises and The Master Equation for Gaussian Reference States
- From repeated to continuous quantum interactions
- Quantum White Noise and the Master Equation for Gaussian Reference States
- Quantum Stochastics, Dirac Boundary Value Problem, and the Ultra Relativistic Limit
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