On Binding Energy of Trions in Bulk Materials
arXiv:1711.08562 · doi:10.1016/j.physleta.2018.01.017
Abstract
We study the negatively and positively charged trions in bulk materials in the effective mass approximation within the framework of a potential model. The binding energies of trions in various semiconductors are calculated by employing Faddeev equation in configuration space. Results of calculations of the binding energies for are consistent with previous computational studies and are in reasonable agreement with experimental measurements, while the is unbound for all considered cases. The mechanism of formation of the binding energy of trions is analysed by comparing contributions of a mass-polarization term related to kinetic energy operators and a term related to the Coulomb repulsion of identical particles.
7 pages, 4 figures
References in corpus (6)
- Exciton Binding Energy of Monolayer WS2
- Trion induced negative photoconductivity in monolayer MoS2
- Three-particle Complexes in Two-Dimensional Semiconductors
- Exciton complexes in low dimensional transition metal dichalcogenides
- Trion and Biexciton in Monolayer Transition Metal Dichalcogenides
- Correlation and dimensional effects of trions in carbon nanotubes
Cited by in corpus (11)
- Cross-over from trion-hole to exciton-polaron in n-doped semiconductor quantum wells
- Few-body systems in condensed matter physics
- On a possible H hypernucleus with HAL QCD interaction
- Trion clustering structure and binding energy in 2D semiconductor materials: Faddeev equations approach
- The charge and mass symmetry breaking in the system
- Bound states of Be and He nuclei with ++ and ++ cluster models
- Trions and biexcitons in a nanowire
- Trion ground state energy: simple results
- Study of light -mesic nuclei with HAL QCD interactions
- Examination of the lattice QCD-motivated strong attractive potentials in the system
- Quantum Monte Carlo study of three-dimensional Coulomb complexes: trions and biexcitons; hydrogen molecules and ions; helium hydride cations; and positronic and muonic complexes