Charge carriers of different origin in cuprates as revealed by experiment
Lev P. Gor'kov, Gregory B. Teitel'baum
Abstract
The Hall coefficient data for cuprates show that number of carriers exceeds external doping x at higher x and varies with temperature. Hence, spins on the Cu-sites are not conserved. Activation energy for thermally excited carriers equals the energy between the Fermi surface "arc" and the band bottom near the van Hove singularities. Crossover from marginal Fermi liquid- to pseudogap- regime happens at temperatures at which number of activated carriers gets comparable with the number of externally doped holes. Implications for the (T,x)-phase diagram of cuprates are discussed.
Create a lesson
Related papers
Superconductivity of Tellurium Polyhydride with Tc above 90K
Jinfu Zhu, Guiqi Liu, Yuanhao Su et al.
Twist-Tunable Paramagnetic Superconductivity in d-wave Altermagnet/Superconductor Heterostructures
Narges Kia, Saeed H. Abedinpour, Zahra Faraei
Chemical Perspectives on Cuprate Superconductivity: Hole-Protected Spin Dimers as d Wave Cooper Pairs
Myung-Hwan Whangbo, Reinhard K. Kremer
Superheating Field of Extreme Type-II Superconductors Calculated from the Eliashberg Theory
Ramesh Paudel, Alex Gurevich
Ballistic-to-Localized Dynamics as Signature of Quantum Phase Transition in Josephson Junction
F. G. Capone, A. de Candia, G. Di Bello et al.
Interplay of Excitonic Charge Density Wave and Superconductivity in Transition Metal Dichalcogenides
Ayussh Anubhav Patel, Amit Ghosal