A Hamiltonian-based quantum-classical solvation hydrodynamics framework is introduced to incorporate consistent backreaction, preserve decoherence, and add dissipative terms for inertial and polarization effects using an ideal polar fluid model.
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The koopmon method based on Koopman wavefunctions models quantum spin and classical orbital dynamics in Rashba nanowires and reproduces full quantum results more accurately than Ehrenfest dynamics, especially with harmonic potentials.
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Quantum-classical solvation hydrodynamics: a Hamiltonian modeling framework
A Hamiltonian-based quantum-classical solvation hydrodynamics framework is introduced to incorporate consistent backreaction, preserve decoherence, and add dissipative terms for inertial and polarization effects using an ideal polar fluid model.
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Quantum-classical dynamics of Rashba spin-orbit coupling
The koopmon method based on Koopman wavefunctions models quantum spin and classical orbital dynamics in Rashba nanowires and reproduces full quantum results more accurately than Ehrenfest dynamics, especially with harmonic potentials.