We present the science and technology roadmap for graphene, related two-dimensional
crystals, and hybrid systems, targeting an evolution in technology, that might lead to impacts …

As quantum technologies develop, a specific class of electrically conducting materials is
rapidly gaining interest because they not only form the core quantum‐enabled elements in …

We have fabricated transistor structures using fluorinated single-layer graphene flakes and
studied their electronic properties at different temperatures. Compared with pristine …

We show that quantum interference in graphene can result in antilocalization of charge
carriers—an increase of the conductance, which is detected by a negative …

We fabricated and measured antidot lattices in single layer graphene with lattice periods
down to 90 nm. In large-period lattices, a well-defined quantum Hall effect is observed …

A principal motivation to develop graphene for future devices has been its promise for
quantum spintronics. Hyperfine and spin-orbit interactions are expected to be negligible in …

We demonstrate the possibility to tune the electronic transport properties of graphene mono-
layers and multi-layers by functionalisation with fluorine. For mono-layer samples, with …

We developed a novel optical defocusing method for studying spatial coherence of
photoexcited electrons and holes near edges of graphene. Our method is applied to …

Graphene provides a fascinating testbed for new physics and exciting opportunities for
future applications based on quantum phenomena. To understand the coherent flow of …

Magnetic properties and electronic structures of graphene with Cl, S, and P adsorption have
been investigated using ab initio calculations. The adsorption of Cl leads to Fermi level …