High-transition temperature (high-T c) superconductivity in the iron pnictides or
chalcogenides emerges from the suppression of the static antiferromagnetic order in their …

High-temperature superconductivity in iron pnictides and chalcogenides emerges when a
magnetic phase is suppressed. The multi-orbital character and the strength of correlations …

Superconductivity in the iron pnictides is often closely connected to a nematic state in which
the tetragonal symmetry of the crystal is spontaneously broken. Determining the dominant …

Understanding the microscopic origins of electronic phases in high-transition temperature
(high-T c) superconductors is important for elucidating the mechanism of superconductivity …

BaNi 2 As 2 is a nonmagnetic analog of the iron pnictide superconductors, and exhibits an
incommensurate charge density wave (IC-CDW) and a sizable elastoresistance. In this …

We use inelastic neutron scattering to study spin waves in the antiferromagnetic ordered
phase of iron pnictide NaFeAs throughout the Brillouin zone. Comparing with the well …

We use neutron resonance spin echo and Larmor diffraction to study the effect of uniaxial
pressure on the tetragonal-to-orthorhombic structural (T s) and antiferromagnetic (AF) phase …

A small in-plane external uniaxial pressure has been widely used as an effective method to
acquire single domain iron pnictide BaFe2As2, which exhibits twin-domains without uniaxial …

The origin of the nematic state is an important puzzle to be solved in iron pnictides. Iron
superconductors are multiorbital systems and these orbitals play an important role at low …

The existence of orbital-dependent electronic correlations has been recognized as an
essential ingredient to describe the physics of iron-based superconductors. NaFeAs, a …