Since the theoretical proposals of topological phases of matter and topological phase
transitions, the experimental realization of topological materials and associated emerging …

The discovery of the three-dimensional topological insulator (TI) has enormously impacted
our understanding of quantum materials. These novel materials are characterized by the …

Because of the unique electronic properties, intriguing novel phenomena, and potentiality in
quantum device applications, the quantum materials with non-trivial band structures have …

To date, the most widely-studied quantum anomalous Hall insulator (QAHI) platform is
achieved by dilute doping of magnetic ions into thin films of the alloyed tetradymite …

Magnetically doped topological insulators enable the quantum anomalous Hall effect
(QAHE) which provides quantized edge states for lossless charge transport applications …

The theoretical prediction and experimental realization of topological phases of matter open
a new window for brushing up our knowledge of the band theory of materials, which has …

The notion of topology has been the central topic of the condensed matter physics in recent
years, ranging from 2D quantum hall (QH) and quantum spin hall (QSH) states, 3D …

Introducing magnetism into topological insulators breaks time-reversal symmetry, and the
magnetic exchange interaction can open a gap in the otherwise gapless topological surface …

When the magnetic order is introduced into topological insulators (TIs), the time-reversal
symmetry (TRS) is broken, and the non-trivial topological surface is driven into a new …

The combination of topological properties and magnetic order can lead to new quantum
states and exotic physical phenomena, such as the quantum anomalous Hall (QAH) effect …