This article discusses fluctuating order in a quantum disordered phase proximate to a
quantum critical point, with particular emphasis on fluctuating stripe order. Optimal strategies …

The electronic transport properties of conventional three-dimensional metals are
successfully described by Fermi-liquid theory. But when the dimensionality of such a system …

One-dimensional electron systems exhibit fundamentally different properties than higher-
dimensional systems. For example, electron–electron interactions in one-dimensional …

We investigate the physical properties of quasi-1D quantum gases of fermionic atoms
confined in harmonic traps. Using the fact that for a homogeneous gas the low-energy …

The time-varying deformation field within a fault zone, particularly at depths where
earthquakes occur, is important for understanding fault behaviour and its relation to …

Hydrogen diffusion on metals exhibits rich quantum behavior, which is not yet fully
understood. Using simulations, we show that many hydrogen diffusion barriers can be …

Confining interacting particles in one-dimension (1D) changes the electronic behavior of the
system fundamentally, which has been studied extensively in the past. Examples of 1D …

We derive the bosonization of the interacting fermionic Su-Schrieffer-Heeger (SSH) model
with open boundaries. We use the classical Euler-Lagrange equations of motion of the …

We investigate the topological properties of one-dimensional weakly interacting topological
insulators using bosonization. To do that we study the topological edge states that emerge at …

A mirror twin-domain boundary (MTB) in monolayer MoSe2 represents a (quasi) one-
dimensional metallic system. Its electronic properties, particularly the low-energy excitations …