Abstract
In this chapter, the theoretical models used in the thesis are briefly introduced.
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Notes
- 1.
Also called optical Bloch equation or Liouville-von Neumann equation in literature [2].
- 2.
The current \(\mathbf{}{j}(\mathbf{}{r})= -i\frac{\wp \hbar }{2m} \left[ \psi _{\mathbf{e}}^{*}\left( \mathbf {r}\right) \nabla \psi _{\mathbf{g}}\left( \mathbf{{r}}\right) - \psi _{\mathbf{g}}\left( \mathbf{{r}}\right) \nabla \psi _{\mathbf{e}}^{*}\left( \mathbf{{r}}\right) \right] \), and the density \(\rho (\mathbf{{r}})=\wp \psi _{\mathbf{e}}^{*}\psi _{\mathbf{g}}\), where \(\wp \) is the charge and \(m\) is mass of the charged particle [7].
- 3.
Also called Maxwell-Schrödinger equations in literature.
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Liao, WT. (2014). Theoretical Model. In: Coherent Control of Nuclei and X-Rays. Springer Theses. Springer, Cham. https://doi.org/10.1007/978-3-319-02120-1_2
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