The presence of different electronic orders other than superconductivity populating the
phase diagram of cuprates suggests that they might be the key to disclose the mysteries of …

Superconductivity in layered cuprates is induced by do** holes into a parent
antiferromagnetic insulator. It is now recognized that another common emergent order …

Besides the mechanism responsible for high critical temperature superconductivity, the
grand unresolved issue of the cuprates is the occurrence of a strange metallic state above …

Charge density waves (CDWs) have been observed in nearly all families of copper-oxide
superconductors. But the behavior of these phases across different families has been …

The normal state of optimally doped cuprates is dominated by the “strange metal” phase that
shows a linear temperature (T) dependence of the resistivity persisting down to the lowest T …

Magnetic frustration is a route for novel ground states, including spin liquids and spin ices.
Such frustration can be introduced through either lattice geometry or incompatible exchange …

Quantum fluctuations in low-dimensional systems and near quantum phase transitions have
significant influences on material properties. Yet, it is difficult to experimentally gauge the …

Static stripe order is detrimental to superconductivity. Yet, it has been proposed that
transverse stripe fluctuations may enhance the inter-stripe Josephson coupling and thus …

The omnipresence of charge density waves (CDWs) across almost all cuprate families
underpins a common organizing principle. However, a longstanding debate of whether its …

In high-temperature cuprate superconductors, stripe order refers broadly to a coupled spin
and charge modulation with a commensuration of eight and four lattice units, respectively …