Multiferroicity could be used to design ultralow power, high-capacity and high-speed data storage devices for classical and quantum computing
Read article: Rare electronic states appear in five-layer graphene
A zero-dimensional electride state, not "excess" electrons, is responsible for superconductivity in aluminium hydride
Read article: Two-dimensional electride material makes a promising superconductor
A new technique allows for much better control of twist angle and strain in layered two-dimensional materials
Read article: Graphene ribbons advance twistronics
Polariton energies are highly tunable using external magnetic fields and magnons
Read article: Exciton–polaritons enhance magneto-optical responses in van der Waals crystals
Properties of bulk graphite become inextricably mixed with those of a 2D material stacked on top of it at a slight twist angle
Read article: New 2.5-dimensional structures observed in twisted graphite hybrids
Desirable defects known as nitrogen vacancies could be created in hexagonal boron nitride using aberration-corrected scanning transmission electron microscopy
Read article: Electron ‘kick’ removes single atoms from 2D material
A two-dimensional form of the element germanium could make electronics faster and more energy efficient
Read article: Graphene’s ‘cousin’ makes a switchable topological insulator
Bilayer graphene devices could find widespread use as qubits and sensors
Read article: Electron-hole symmetry in quantum dots shows promise for quantum computing
Tip-enhanced nanospectroscopy reveals quasiparticle standing waves
Read article: Surface plasmon polaritons launched by nano-emitters are imaged in the near field
New 2D metamaterial could boost 6G telecoms
Read article: Photonic time crystal amplifies microwaves
