A unified approach to infinite dimensional integration
arXiv:1411.2853 · doi:10.1142/S0129055X16300016
Abstract
An approach to infinite dimensional integration which unifies the case of oscillatory integrals and the case of probabilistic type integrals is presented. It provides a truly infinite dimensional construction of integrals as linear functionals, as much as possible independent of the underlying topological and measure theoretical structure. Various applications are given, including, next to Schrödinger and diffusion equations, also higher order hyperbolic and parabolic equations.
References in corpus (2)
Cited by in corpus (18)
- Classical shadow tomography for continuous variables quantum systems
- Geometric inequalities from phase space translations
- Self-Adjointness of Toeplitz Operators on the Segal-Bargmann Space
- Phase Spaces, Parity Operators, and the Born-Jordan Distribution
- Convolutions for Berezin quantization and Berezin-Lieb inequalities
- Contractivity properties of a quantum diffusion semigroup
- Classical correspondence beyond the Ehrenfest time for open quantum systems with general Lindbladians
- Optimal estimates of trace distance between bosonic Gaussian states and applications to learning
- Rapidly Decaying Wigner Functions are Schwartz Functions
- Sobolev Spaces, Schwartz Spaces, and a definition of the Electromagnetic and Gravitational coupling
- Flow conditions for continuous variable measurement-based quantum computing
- Decoupling for Schatten class operators in the setting of Quantum Harmonic Analysis
- A simple criterion for essential self-adjointness of Weyl pseudodifferential operators
- A stable quantum Darmois-Skitovich theorem
- Induced -complexes in metaplectic geometry
- Extensions of Daubechies' theorem: Reinhardt domains, Hagedorn wavepackets and mixed-state localization operators
- From the Choi Formalism in Infinite Dimensions to Unique Decompositions of Generators of Completely Positive Dynamical Semigroups
- Heisenberg-smooth operators from the phase space perspective