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European Control Conference (ECC)

Quantum numerical optimal control of nucleon and meson dissipative dynamical model

Quan‐Fang Wang, Chengyu Cao

Published Aug 1, 2009• 10 citations
Publisher

Abstract

A reasonable dissipative physical model is established for nucleons and meson dynamical system described by Klein-Gordon Schrödinger coupled equations. Using the laser pulse electric control to derive the initial ground state to target excited state will be considered in this paper. A stable semi-discrete approach is experimentally applied to realize the theoretical design of control searching. The perfect matched simulation results illustrated the feasibility of theoretical study, and provided the prediction for real laboratory experiments.

DOI
10.23919/ecc.2009.7074398

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A reasonable dissipative physical model is established for nucleons and meson dynamical system described by Klein-Gordon Schrödinger coupled equations. Using the laser pulse electric control to derive the initial ground state to target excited state will be considered in this paper. A stable semi-discrete approach is experimentally applied to realize the theoretical design of control searching. The perfect matched simulation results illustrated the feasibility of theoretical study, and provided the prediction for real laboratory experiments.
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