Model for the electrical conductivity in dense plasma mixtures
arXiv:2002.00039 · doi:10.1016/j.hedp.2020.100752
Abstract
A new model for the electrical conductivity of dense plasmas with a mixture of ion species, containing no adjustable parameters, is presented. The model takes the temperature, mass density and relative abundances of the species as input. It takes into account partial ionization, ionic structure, and core-valence orthogonality, and uses quantum mechanical calculations of cross sections. Comparison to an existing high fidelity but computationally expensive method reveals good agreement. The new model is computationally efficient and can reach high temperatures. A new mixing rule is also presented that gives reasonably accurate conductivities for high temperature plasma mixtures.
References in corpus (13)
- Local Spin-density Approximation Exchange-correlation Free-energy Functional
- Transport properties for liquid silicon-oxygen-iron mixtures at Earth's core conditions
- Density-functional calculations of transport properties in the non-degenerate limit and the role of electron-electron scattering
- Ionic and electronic transport properties in dense plasmas by orbital-free density functional theory
- Probing Ion-Ion and Electron-Ion Correlations in Liquid Metals within the Quantum Hypernetted Chain Approximation
- An integral equation model for warm and hot dense mixtures
- Potential of mean force for electrical conductivity of dense plasmas
- Low-frequency plasma conductivity in the average-atom approximation
- High Temperature Electronic Structure with KKR
- Plasma opacity calculations using the Starrett and Saumon average-atom model with ion correlations
- Tabular Electrical Conductivity for Aluminum
- Correlations Between Conduction Electrons in Dense Plasmas
- Combining quantum and classical density functional theory for ion-electron mixtures
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