Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Ukrainian Mathematical Journal

A generalization of operator stochastic integrals

A. V. Gorbunov

Published Apr 1, 1994• 0 citations
Publisher
DOI
10.1007/bf01060415

Related papers

Quantum Stochastic Integrals as Operators

Andrzej Łuczak

arXiv:1001.1959•International Journal of Theoretical Physics•May 3, 2010•1 citation

Anticipating quantum stochastic integrals

Un Cig Ji

Based on the quantum white noise theory, we formulate new types of anticipating quantum stochastic integrals by combining the Hitsuda–Skorokhod quantum stochastic integrals and the interactions between the integrands and the integrators. For our purpose, we prove various versions of analytic characterization theorems of symbols of white noise operators as more general cases. Also, several types of quantum (stochastic) gradients are formulated as continuous linear operators which are related to the quantum white noise derivatives and reflecting the interactions with the external noises. Finally, we formulate further systematical study of anticipating quantum stochastic integrals.

Infinite Dimensional Analysis Quantum Probability and Related Topics•May 23, 2024•0 citations

Quantum stochastic integrals as belated integrals

Chris Barnett, J. Martin Lindsay, Ivan F. Wilde

Quantum stochastic integrals have been constructed in various contexts [2, 3, 4, 5, 9] by adapting the construction of the classical L2-Itô-integral with respect to Brownian motion. Thus, the integral is first defined for simple integrands as a finite sum, then one establishes certain isometry relations or suitable bounds to allow the extension, by continuity, to more general integrands. The integrator is typically operator-valued, the integrand is vector-valued or operator-valued and the quantum stochastic integral is then given as a vector in a Hilbert space, or as an operator on the Hilbert space determined by its action on suitable vectors.

Glasgow Mathematical Journal•May 1, 1992•1 citation

Path Integrals for Stochastic Processes

Horacio S. Wio

WORLD SCIENTIFIC eBooks•Nov 15, 2012•71 citations

Series of iterated quantum stochastic integrals

Stéphane Attal, R. L. Hudson

Lecture notes in mathematics•Jan 1, 2000•1 citation

Wick Calculus of Generalized Operators and its Applications to Quantum Stochastic Calculus

Zhiyuan Huang, Shunlong Luo

A nonlinear and stochastic analysis of free Bose field is established in the framework of white noise calculus. Wick algebra structure is introduced in the space of generalized operators generated by quantum white noise, some fundamental properties of the calculus based on the Wick algebra are investigated. As applications, quantum stochastic integrals and quantum stochastic differential equations are treated from the viewpoint of Wick calculus.

Infinite Dimensional Analysis Quantum Probability and Related Topics•Jul 1, 1998•12 citations
Based on the quantum white noise theory, we formulate new types of anticipating quantum stochastic integrals by combining the Hitsuda–Skorokhod quantum stochastic integrals and the interactions between the integrands and the integrators. For our purpose, we prove various versions of analytic characterization theorems of symbols of white noise operators as more general cases. Also, several types of quantum (stochastic) gradients are formulated as continuous linear operators which are related to the quantum white noise derivatives and reflecting the interactions with the external noises. Finally, we formulate further systematical study of anticipating quantum stochastic integrals.
Quantum stochastic integrals have been constructed in various contexts [2, 3, 4, 5, 9] by adapting the construction of the classical L2-Itô-integral with respect to Brownian motion. Thus, the integral is first defined for simple integrands as a finite sum, then one establishes certain isometry relations or suitable bounds to allow the extension, by continuity, to more general integrands. The integrator is typically operator-valued, the integrand is vector-valued or operator-valued and the quantum stochastic integral is then given as a vector in a Hilbert space, or as an operator on the Hilbert space determined by its action on suitable vectors.