Surprising coincidence of the apparent 2D metal-to-insulator transition data with Fermi-gas based model results
arXiv:1603.02326 · doi:10.1016/j.ssc.2017.01.027
Abstract
The melting condition for two-dimensional Wigner solid ( P.M. Platzman, H.Fukuyama, 1974) is shown to contain an error of a factor of . The analysis of experimental data for apparent 2D metal-to-insulator transition shows that the Wigner solidification (B.Tanatar, D.M.Ceperley, 1989) has been never achieved. Within routine Fermi gas model both the metallic and insulating behavior of different 2D system for actual range of carrier densities and temperatures is explained.
arXiv comment4 pages, changes in fig.3
References in corpus (14)
- The Metallic-Like Conductivity of a Two-Dimensional Hole System
- Transport in strongly correlated two dimensional electron fluids
- Metal Insulator transition at B=0 in p-SiGe
- Resistivity of dilute 2D electrons in an undoped GaAs heterostructure
- Wigner-Mott scaling of transport near the two-dimensional metal-insulator transition
- Two-dimensional metal-insulator transition and in-plane magnetoresistance in a high mobility strained Si quantum well
- Maximum Metallic Conductivity in Si-MOS Structures
- Strongly Enhanced Hole-Phonon Coupling in the Metallic State of the Dilute Two-Dimensional Hole Gas
- Connecting the Reentrant Insulating Phase and the Zero Field Metal-Insulator Transition in a 2D Hole System
- Linear temperature dependence of conductivity in Si two-dimensional electrons near the apparent metal-to-insulator transition
- Temperature and Magnetic Field Enhanced Hall Slope of a Dilute 2D Hole System in the Ballistic Regime
- Non-activated transport of strongly interacting two-dimensional holes in GaAs
- Degenerate versus semi-degenerate transport in a correlated 2D hole system
- Thermal correction to resistivity in dilute 2D systems