James Hone

TL;DR: In this paper, the authors demonstrate a new device architecture in which a layered heterostructure can be dynamically twisted, in situ, by varying the relative angle between the layers of two-dimensional materials.

TL;DR: Hot electrons become spatially localized at the centre of the graphene layer, resulting in a 1,000-fold enhancement in thermal radiation efficiency and paving the way towards the realization of commercially viable large-scale, atomically thin, flexible and transparent light emitters and displays with low operation voltage and graphene-based on-chip ultrafast optical communications.

TL;DR: An unusually long mean free path at room temperature has been experimentally confirmed and suggests anomalous localization effects in single-walled carbon nanotube devices with channel lengths that vary 4 orders of magnitude.

TL;DR: Graphene plasmons are used, propagating at extremely slow velocities close to the electron Fermi velocity, to probe the nonlocal response of the graphene electron liquid, and a parameter-free match with the full quantum description of the massless Dirac electron gas is revealed.

TL;DR: Electronic structure calculations show the interlayer separation changes with twist due to repulsion between sulfur atoms, resulting in shifts of the indirect optical transition energies.