The advent of graphene and other two-dimensional van der Waals materials, with their
unique electrical, optical, and thermal properties has resulted in tremendous progress for …

Quasi-one-dimensional systems, having tendencies toward density-wave order in
competition with superconductive pairing in their ground states, may give rise to …

In this and the two following papers, we present the results of a combined study by density-
functional band theory and angle-resolved photoemission spectroscopy (ARPES) of lithium …

Upon cooling, condensed-matter systems typically transition into states of lower symmetry.
The converse—ie, the emergence of higher symmetry at lower temperatures—is extremely …

We report the crystal growth, structural characterization, and physical properties of an off-
stoichiometric van der Waals telluride Ta 1.2 Os 0.8 Te 4, which is isostructural with the …

We present a detailed study of the magnetotransport properties of the charge density wave
state in quasi-two-dimensional purple bronze Na 0.9 Mo 6 O 17 under pulsed fields up to 62 …

Topological band dispersions other than the standard Dirac or Weyl fermions have garnered
the increasing interest in materials science. Among them, the cubic Dirac fermions were …

Inspired by the observation of increasingly one-dimensional (1D) behavior with decreasing
temperature in small-angle twisted bilayers of WTe $ _2 $(tWTe $ _2 $), we theoretically …

We report on the solid-state synthesis and the strongly anisotropic transport properties of the
ternary telluride TaNi 2 Te 3, whose three orthogonal resistivity coefficients exhibit a large …

Strategies to achieve higher upper-critical-field superconductors ({\mu} 0Hc2 (0)) are of
great interest for both fundamental science and practical applications. While reducing the …