Potential applications in photonics and optoelectronics are based on our understanding of
the light–matter interaction on an atomic monolayer scale. Atomically thin 2D transition metal …

Beginning with the “conventional” two-dimensional (2D) quantum wells based on III–V and II–
VI semiconductors in the 1970s, to the recent atomically thin sheets of van der Waals …

Interlayer (IL) excitons, comprising electrons and holes residing in different layers of van der
Waals bonded two-dimensional semiconductors, have opened new opportunities for room …

Transition metal dichalcogenides (TMDs) constitute a versatile platform for atomically thin
optoelectronics devices and spin–valley memory applications. In monolayer TMDs the …

Combining MoS2 monolayers to form multilayers allows to access new functionalities.
Deterministic assembly of large area van der Waals structures requires concrete indicators …

Monolayer semiconducting transition metal dichalcogenides possess broken inversion
symmetry and strong spin-orbit coupling, leading to a unique spin-valley locking effect. In 2H …

New practical ways to reach the lasing effect in symmetrical metasurfaces have been
developed and theoretically demonstrated. Our approach is based on excitation of the …

Atomically thin semiconducting transition metal dichalcogenides (TMDCs) have unique
mechanical and optical properties. They are extremely flexible and exhibit a strong optical …

Twisted layers of atomically thin two-dimensional materials realize a broad range of
quantum materials with engineered optical and transport phenomena arising from spin and …

Heterostructures of two-dimensional transition-metal dichalcogenides and ferromagnetic
substrates are important candidates for the development of viable new spin-or valleytronic …