Combining opposite rhombohedral stacking sequences in graphite produces topological flat bands at their domain interfaces near the K and K' points.
Title resolution pending
3 Pith papers cite this work. Polarity classification is still indexing.
3
Pith papers citing it
representative citing papers
Boron-doped ultrathin carbon nanotubes in zeolite show magnetization, specific heat, resistance, and point-contact signatures attributed to superconductivity with Tc between 220 and 250 K, though zero resistance is not achieved.
The particle charge of a fermion is equivalent to its topological charge, which underpins the stability of the Fermi surface, the applicability of Landau Fermi liquid theory, and the Luttinger theorem in insulators.
citing papers explorer
-
Topological flat bands emerging at the inversion of stacking order in rhombohedral graphite
Combining opposite rhombohedral stacking sequences in graphite produces topological flat bands at their domain interfaces near the K and K' points.
-
Signatures of a high-temperature collective electronic phase with superconductivity-like characteristics and a giant pressure effect in networks of boron-doped ultrathin carbon nanotubes
Boron-doped ultrathin carbon nanotubes in zeolite show magnetization, specific heat, resistance, and point-contact signatures attributed to superconductivity with Tc between 220 and 250 K, though zero resistance is not achieved.
-
Topological charge of fermions and Landau theory of Fermi liquid
The particle charge of a fermion is equivalent to its topological charge, which underpins the stability of the Fermi surface, the applicability of Landau Fermi liquid theory, and the Luttinger theorem in insulators.