Develops a validation framework for quantum spin dynamics simulations anchored by neutron scattering and classical methods, using observable maps, uncertainty propagation, robustness tests, and actuator-aware feedback.
Fauseweh, Nature Communications15, 2123 (2024)
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quant-ph 2years
2026 2verdicts
UNVERDICTED 2representative citing papers
Constructs boundary-consistent weakly relativistic lattice Hamiltonians for 1D first-quantized simulation by reconstructing momentum moments from cyclic translations (PBC) or finite differences (DBC), validated on benchmark potentials.
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A Validation Framework for Quantum Simulation of Spin Dynamics against Inelastic Neutron Scattering and Classical Simulation
Develops a validation framework for quantum spin dynamics simulations anchored by neutron scattering and classical methods, using observable maps, uncertainty propagation, robustness tests, and actuator-aware feedback.
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First-Quantized Relativistic Quantum Simulation with Periodic and Dirichlet Boundary Conditions
Constructs boundary-consistent weakly relativistic lattice Hamiltonians for 1D first-quantized simulation by reconstructing momentum moments from cyclic translations (PBC) or finite differences (DBC), validated on benchmark potentials.