In condensed matter, the chiral anomaly describes the conversion of left-moving Dirac–Weyl
fermions to right-moving ones in parallel electric and magnetic fields. The resulting axial …

The creation of pseudo-magnetic fields in strained graphene has emerged as a promising
route to investigate intriguing physical phenomena that would be unattainable with …

Ultrafast experiments using sub-picosecond pulses of light are poised to play an important
role in the study and use of topological materials and, particularly, of the three-dimensional …

The nontrivial magnetic texture in real space gives rise to the intriguing phenomenon of the
topological Hall effect (THE), which is relatively less explored in topological semimetals …

The discovery of chiral anomaly in Weyl semimetals, the nonconservation of chiral charge
and energy across two opposite chirality Weyl nodes, has sparked immense interest in …

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 …

We theoretically predict a working principle for optical amplification, based on Weyl
semimetals: When a Weyl semimetal is suitably irradiated at two frequencies, electrons …

The pseudomagnetic field effect may offer unique opportunities for the emergence of
intriguing phenomena. To date, investigations into pseudomagnetic field effects on phonons …

The linear band crossings of 3D Dirac and Weyl semimetals are characterized by a charge
chirality, the parallel or antiparallel locking of electron spin to its momentum. These materials …

The current response to an electromagnetic field in a Weyl or Dirac semimetal becomes
nonlocal due to the chiral anomaly activated by an applied static magnetic field. The …