Prediction of the Optical Polarization and High Field Hyperfine Structure Via a Parametrized Crystal-Field Model for the Low Symmetry Centers in Er Doped YSiO
arXiv:2206.09080 · doi:10.1103/PhysRevB.104.155121
Abstract
We report on the development and application of a parametrized crystal-field model for both C symmetry centers in trivalent erbium-doped YSiO. High resolution Zeeman and temperature dependent absorption spectroscopy was performed to acquire the necessary experimental data. The obtained data, in addition to the ground (IZ) state and exited (IY) state Zeeman and hyperfine structure, was simultaneously fitted in order to refine an existing crystal-field interpretation of the Er:YSiO system. We demonstrate that it is possible to account for the electronic, magnetic and hyperfine structure of the full 4f configuration of Er:YSiO and further, that it is possible to predict both optical polarization behavior and high magnetic field hyperfine structure of transitions in the 1.5 m telecommunications band.
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- Refining spectroscopic calculations for trivalent lanthanide ions: a revised parametric Hamiltonian and open-source solution
- Reproduction of the electronic and magnetic structure of the low symmetry sites of YSiO doped with Sm via a parameterized crystal-field model
- Boltzman optical thermometry for cryogenics
- Exploration of optimal hyperfine transitions for spin-wave storage in Er:YSiO
- Spectroscopy and Crystal-Field Analysis of Low -Symmetry Er Centres in KYF Microparticles