Merging of Landau levels in a strongly-interacting two-dimensional electron system in silicon

Abstract

We show that the merging of the spin- and valley-split Landau levels at the chemical potential is an intrinsic property of a strongly-interacting two-dimensional electron system in silicon. Evidence for the level merging is given by available experimental data.

References in corpus (3)

• Metal-insulator transition in two-dimensional electron systems
• Scaling Behavior of Heavy Fermion Metals
• Merging of single-particle levels and non-Fermi-liquid behavior of finite Fermi systems

Cited by in corpus (5)

• Occurrence of flat bands in strongly correlated Fermi systems and high-$T_c$ superconductivity of electron-doped compounds
• Two dimensional electrons in (100) oriented silicon field effect structures in the region of low concentrations and high mobilities
• Strongly correlated Fermi systems as a new state of matter
• Band Flattening and Landau Level Merging in Strongly-Correlated Two-Dimensional Electron Systems
• A unified quasiparticle approach to the theory of strongly correlated electron liquids