Analysis of dissipative dynamics on noncommutative spaces and statistical inference of continuous time network stochastic processes
Shreya Mehta

TL;DR
This thesis explores dissipative dynamics on noncommutative spaces, quantum stochastic processes, and classical statistical models for multivariate graph processes, revealing new insights into equilibrium decay, Lie algebra representations, and long-memory graph modeling.
Contribution
It introduces models of dissipative dynamics on quantum spaces, noncommutative Lie algebra representations, and a classical multivariate graph process with consistent estimation methods.
Findings
Models decay to equilibrium algebraically without Poincare inequality
Noncommutative Lie algebra representations via creation and annihilation operators
Consistent and asymptotically normal estimators for multivariate graph processes
Abstract
In this thesis, we analyse the generalisations of the Ornstein-Uhlenbeck (OU) semigroup and study them in both quantum and classical setups. In the first three chapters, we analyse the dissipative dynamics on noncommutative/quantum spaces, in particular, the systems with multiparticle interactions associated to CCR algebras. We provide various models where the dissipative dynamics are constructed using noncommutative Dirichlet forms. Some of our models decay to equilibrium algebraically and the Poincare inequality does not hold. Using the classical representation of generators of nilpotent Lie algebras, we provide the noncommutative representations of Lie algebras in terms of creation and annihilation operators and discuss the construction of corresponding Dirichlet forms. This introduces the opportunity to explore quantum stochastic processes related to Lie algebras and nilpotent Lie…
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Taxonomy
TopicsRandom Matrices and Applications · Quantum Mechanics and Applications · Advanced Operator Algebra Research
