The Hall effect of topological quantum materials often reveals essential new physics and
possesses potential for application. The magnetic Weyl semimetal is one especially …

The increasing interest in chiral light stems from its spiral trajectory along the propagation
direction, facilitating the interaction between different polarization states of light and matter …

We investigate optically induced magnetization in Floquet-Weyl semimetals generated by
irradiation of a circularly polarized continuous-wave laser from the group II-V narrow gap …

The magnetic doping of Dirac semimetals breaks their time-reversal symmetry thus giving
rise to anomalous transport phenomena promising for applications. While the Dirac cone …

Modulation of magnetization in magnetic Weyl semimetals leads to the shift of Weyl points in
momentum space, which effectively serves as the chirality-dependent gauge field for the …

Chirality of massless fermions emerging in condensed matter is a key to understand their
characteristic behavior as well as to exploit their functionality. However, the chiral nature of …

Abstract Domain walls (DWs) in magnetic materials host various interesting magneto-
transport phenomena. Recent theoretical proposals focusing on DWs of magnetic Weyl …

Metasurfaces integrated with high-performance films exhibit unique optoelectronic
properties and hold great potential for applications in terahertz detection. Achieving high …

Periodic laser driving, known as Floquet engineering, is a powerful tool to manipulate the
properties of quantum materials. Using circularly polarized light, artificial magnetic fields …

Modulation of magnetization in magnetic Weyl semimetals leads to the shift of Weyl points in
momentum space, which effectively serves as the chirality-dependent gauge field for the …