Convergence of the Magnus series
arXiv:math/0609198 · doi:10.1007/s10208-007-9010-0
Abstract
The Magnus series is an infinite series which arises in the study of linear ordinary differential equations. If the series converges, then the matrix exponential of the sum equals the fundamental solution of the differential equation. The question considered in this paper is: When does the series converge? The main result establishes a sufficient condition for convergence, which improves on several earlier results.
11 pages; v2: added justification for conjecture, minor clarifications and corrections
Cited by in corpus (26)
- The Magnus expansion and some of its applications
- Floquet-Magnus Theory and Generic Transient Dynamics in Periodically Driven Many-Body Quantum Systems
- Faster Digital Quantum Simulation by Symmetry Protection
- The theory of Turing patterns on time varying networks
- Effective Willis constitutive equations for periodically stratified anisotropic elastic media
- Photoinduced pseudospin effects in silicene beyond the off resonant condition
- Exact solution of time-dependent Lindblad equations with closed algebras
- Systematic Magnus-based approach for suppressing leakage and non-adiabatic errors in quantum dynamics
- Characterization and Verification of Trotterized Digital Quantum Simulation via Hamiltonian and Liouvillian Learning
- Efficient computation of high index Sturm-Liouville eigenvalues for problems in physics
- Heating in integrable time-periodic systems
- High-frequency expansions for time-periodic Lindblad generators
- On the stochastic Magnus expansion and its application to SPDEs
- On expansions for nonlinear systems, error estimates and convergence issues
- Quantum supremacy and quantum phase transitions
- Applications of Picard and Magnus expansions to the Rabi model
- On the Baker-Campbell-Hausdorff Theorem: non-convergence and prolongation issues
- Divergence of the Floquet-Magnus expansion in a periodically driven one-body system with energy localization
- Graphene with time-dependent spin-orbit coupling: Truncated Magnus expansion approach
- A Lanczos-like method for non-autonomous linear ordinary differential equations
- Digital Quantum Simulation, Learning of the Floquet Hamiltonian, and Quantum Chaos of the Kicked Top
- General, efficient, and robust Hamiltonian engineering
- Magnus expansion method for two-level atom interacting with few-cycle pulse
- Towards robust variational quantum simulation of Lindblad dynamics via stochastic Magnus expansion
- Continuous changes of variables and the Magnus expansion
- Quantum Chaos and Universal Trotterisation Behaviours in Digital Quantum Simulations