- #1
Joschua_S
- 11
- 0
Hello
I have this Hamiltonian:
[itex] \mathcal{H} = \alpha S_{+} + \alpha^{*}S_{-} + \beta S_{z} [/itex]
with [itex]\alpha, \beta \in \mathbb{C} [/itex]. The Operators [itex] S_{\pm}[/itex] are ladder-operators on the spin space that has the dimension [itex]2s+1 [/itex] and [itex] S_{z} [/itex] is the z-operator on spin space.
Do you know how to get (if possible with algebraic argumentation) the eigenvalue spectrum [itex] \sigma( \mathcal{H} ) [/itex]?
This Hamiltonian describes anisotropy of g-factor.
Thanks
Greetings
I have this Hamiltonian:
[itex] \mathcal{H} = \alpha S_{+} + \alpha^{*}S_{-} + \beta S_{z} [/itex]
with [itex]\alpha, \beta \in \mathbb{C} [/itex]. The Operators [itex] S_{\pm}[/itex] are ladder-operators on the spin space that has the dimension [itex]2s+1 [/itex] and [itex] S_{z} [/itex] is the z-operator on spin space.
Do you know how to get (if possible with algebraic argumentation) the eigenvalue spectrum [itex] \sigma( \mathcal{H} ) [/itex]?
This Hamiltonian describes anisotropy of g-factor.
Thanks
Greetings