Phase-space propagation and stability analysis of the 1-dimensional
Schr\"odinger equation for finding bound and resonance states of rotationally
excited H$_2$
- URL: http://arxiv.org/abs/2006.00095v3
- Date: Mon, 30 Aug 2021 13:06:14 GMT
- Title: Phase-space propagation and stability analysis of the 1-dimensional
Schr\"odinger equation for finding bound and resonance states of rotationally
excited H$_2$
- Authors: Juan S. Molano, Carlos A. Arango
- Abstract summary: A mathematical phase-space representation of the 1-dimensional Schr"odinger equation is employed to obtain bound and resonance states of the rotationally excited H$$ molecule.
The structure of the phase-space tangent field is analyzed and related to the behavior of the wave function in classically allowed and forbidden regions.
- Score: 0.0
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: A mathematical phase-space representation of the 1-dimensional Schr\"odinger
equation is employed to obtain bound and resonance states of the rotationally
excited H$_2$ molecule. The structure of the phase-space tangent field is
analyzed and related to the behavior of the wave function in classically
allowed and forbidden regions. In this phase-space representation, bound states
behave like unstable orbits meanwhile resonance states behave similarly to
asymptotically stable cycles. The lattice of quantum states of the
energy-momentum diagram for H$_2$ is calculated allowing to have a global view
of the energy as function of the quantum numbers. The arc length and winding
number of the phase-space trajectories, as functions of the energy, are used to
obtain the energy eigenvalues of bound and resonance states of H$_2$
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