The discovery of superconductivity in the two-leg ladder compound BaFe 2 S 3 has
established the 123-type iron chalcogenides as a novel and interesting subgroup of the iron …

Iron-based superconductors display a variety of magnetic phases originating in the
competition between electronic, orbital, and spin degrees of freedom. Previous theoretical …

Inelastic neutron scattering recently confirmed the theoretical prediction of a↑↑↓↓-
magnetic state along the legs of quasi-one-dimensional iron-based ladders in the orbital …

Competing interactions in quantum materials induce exotic states of matter such as
frustrated magnets, an extensive field of research from both the theoretical and experimental …

Motivated by increasing experimental evidence of exotic magnetism in low-dimensional iron-
based materials, we present a comprehensive theoretical analysis of magnetic states of the …

We present a comprehensive study of the spin excitations—as measured by the dynamical
spin structure factor S (q, ω)—of the so-called block-magnetic state of low-dimensional …

The electronic structure of BaFe 2 X 3 (X= S and Se) and CsFe 2 Se 3 in which two-leg
ladders are formed by the Fe sites are studied by means of x-ray absorption and resonant …

The majority of the iron-based superconductors (FeSCs) exhibit a two-dimensional square
lattice structure. Recent reports of pressure-induced superconductivity in the spin-ladder …

Quasi-one-dimensional iron chalcogenides possess various magnetic states depending on
the lattice distortion, electronic correlations, and presence of defects. We present neutron …

We report pressure-dependent neutron diffraction and muon spin relaxation/rotation
measurements combined with first-principles calculations to investigate the structural …