Published on 20 July 2016 |
Data for "Suppression of lattice thermal conductivity by mass-conserving cation mutation in multi-component semiconductors"
View DatasetDescription
In semiconductors almost all heat is conducted by phonons (lattice vibrations), which is limited by their quasi-particle lifetimes. Phonon-phonon interactions represent scattering mechanisms that produce thermal resistance. In thermoelectric materials, this resistance due to anharmonicity should be maximised for optimal performance. We use a first-principles lattice-dynamics approach to explore the changes in lattice dynamics across an isostructural series where the average atomic mass is conserved: ZnS to CuGaS2 to Cu2ZnGeS4. Our results demonstrate an enhancement of phonon interactions in the multernary materials and confirm that lattice thermal conductivity can be controlled independently of the average mass and local coordination environments.
Citations (1)
- https://doi.org/10.1063/1.4955401DataCite MDC
Cited on 01 October 2016
Weight: 1.00
Mentions (27)
- https://github.com/qiongyuyang/PhononsSoftware Heritage
Mentioned on 20 June 2025
Weight: 1.76
- https://github.com/5ky9uy/PhononsSoftware Heritage
Mentioned on 17 November 2024
Weight: 1.73
- https://github.com/pauliwu/PhononsSoftware Heritage
Mentioned on 02 July 2024
Weight: 1.73
- https://github.com/xueyongpang/PhononsSoftware Heritage
Mentioned on 01 July 2024
Weight: 1.73
- https://github.com/Huaguiyuan/PhononsSoftware Heritage
Mentioned on 29 June 2024
Weight: 1.73
- https://github.com/Chang-Renlab/PhononsSoftware Heritage
Mentioned on 22 June 2024
Weight: 1.73
- https://github.com/philippedavid/PhononsSoftware Heritage
Mentioned on 31 May 2024
Weight: 1.73
- https://github.com/yaoyongxin/PhononsSoftware Heritage
Mentioned on 30 May 2024
Weight: 1.73
- https://github.com/WMD-group/PhononsSoftware Heritage
Mentioned on 05 April 2024
Weight: 1.73
- https://github.com/nityasagarjena/PhononsSoftware Heritage
Mentioned on 04 April 2023
Weight: 1.69
Metrics Over Time
Publication Details
Subfield
Materials Chemistry
Field
Materials Science
Domain
Physical Sciences
Confidence Score
57%
Source
Scholar Data Model