Electrons driven coherently by laser light can exhibit nonperturbative geometric effects.
Drastic deformation and gap openings of the electrons' Floquet bands occur at one-photon …

The interplay of chiralities in light and quantum matter provides an opportunity to design and
manipulate chirality-dependent properties in quantum materials. Herein we report the …

Recent advancement in laser technology has opened the path toward the manipulation of
functionalities in quantum materials by intense coherent light. Here, we study three …

Transverse current generation by circularly polarized light in biased matter has attracted
considerable attention for studies of Floquet engineering and inverse spin Hall effect. Field …

This study examines the electronic states of quantum materials influenced by waves V (Qx-
omega t) propagating through them. These waves can include laser light, polaritons …

We study Dirac fermions in the presence of a space-dependent chiral gauge field and
thermodynamic gradients, establishing a connection to the inverse spin Hall effect. The …

We use Boltzmann theory to study the semi-classical dynamics of electrons in a two-
dimensional (2D) tilted Dirac material in which the tilt varies in space. The spatial variation of …

We investigated the light-control of topological matter phases in 3-dimensional Dirac
electron systems. Light-induced creation of chiral gauge field and also the realization of …

We use Boltzmann theory to study the semi-classical dynamics of electrons in a two-
dimensional (2D) tilted Dirac material in which the tilt varies in space. The spatial variation of …

The chiral gauge field (CGF) plays a crucial role in condensed matter physics, particularly in
materials known as Dirac and Weyl semimetals. Weyl semimetals arise from the breaking of …