The "Bohr" Model for the High Tc Superconductivity
Y. H. Kim, P. H. Hor

TL;DR
This paper introduces a charge crystal model that explains high Tc superconductivity by emphasizing 3D ordering of 2D electronic lattices, integrating recent experimental findings to propose a microscopic mechanism.
Contribution
It presents a novel charge crystal model that unifies various experimental observations to explain the mechanism of high Tc superconductivity.
Findings
3D ordering of 2D electronic lattices is fundamental to HTS.
The model coherently integrates transport, far-IR, and neutron scattering data.
Proposes a microscopic theory for high Tc superconductivity.
Abstract
We propose a charge crystal model that captures all the essential physics of the high temperature superconductivity (HTS) in the long wavelength limit. Based on the recent transport and the far-infrared (far-IR) experiments, we argue that the three-dimensional (3D) ordering of the pinned two-dimensional (2D) square electronic lattice (EL) in each CuO2 plane is the building block of HTS. Incorporating the physical picture derived from the neutron scattering experiments, we demonstrate that our model presents a coherent picture of the HTS. We suggest that the charge crystal model serves as a model for the microscopic theory and, hence, offers the key to the mechanism for the HTS.
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