CeCo2As2 exhibits an enhanced spontaneous anomalous Nernst effect attributed to strong Berry curvature in f-orbital-dominated flat bands, serving as a signature of Fermi energy pinning in a topological flat band.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
4
Pith papers citing it
years
2026 4verdicts
UNVERDICTED 4representative citing papers
Mode-dependent ferromagnetic Kondo coupling yields singlet ground states and heavy Fermi liquids as a magnetic-channel analog to Anderson-Morel superconductivity.
Quantizing the mechanical rotor in the Barnett effect turns the classical effective field into an operator, generating coherent spin-rotor entanglement visible in spin purity, rotor coherence, and entanglement entropy.
Ni doping in CeCoIn5 increases carrier density linearly as electron doping while suppressing anomalous enhancements in the Hall coefficient near the upper critical field and above Tc.
citing papers explorer
-
Enhanced Anomalous Nernst Effect in the Ferromagnetic Kondo Lattice CeCo2As2
CeCo2As2 exhibits an enhanced spontaneous anomalous Nernst effect attributed to strong Berry curvature in f-orbital-dominated flat bands, serving as a signature of Fermi energy pinning in a topological flat band.
-
Kondo singlet from ferromagnetic coupling: an analog of Anderson-Morel superconductivity in the magnetic channel
Mode-dependent ferromagnetic Kondo coupling yields singlet ground states and heavy Fermi liquids as a magnetic-channel analog to Anderson-Morel superconductivity.
-
Minimal spin-rotor model for Barnett and Einstein--de Haas physics
Quantizing the mechanical rotor in the Barnett effect turns the classical effective field into an operator, generating coherent spin-rotor entanglement visible in spin purity, rotor coherence, and entanglement entropy.
-
Carrier-doping effect and anomalous transport properties in Ni-doped CeCoIn5 investigated by Hall resistivity measurements
Ni doping in CeCoIn5 increases carrier density linearly as electron doping while suppressing anomalous enhancements in the Hall coefficient near the upper critical field and above Tc.