The outstanding electrical properties with unique band structure, graphene displays a
distinctively high mobility through electron delocalization and weak electron–phonon …

Heteroatom doping can endow graphene with various new or improved electromagnetic,
physicochemical, optical, and structural properties. This greatly extends the arsenal of …

To ensure the high performance of graphene-based devices, it is necessary to engineer the
electrical properties of graphene with enhanced conductivity, controlled work function …

Due to its ultrabroadband optical absorption, large theoretical surface area, outstanding
thermal conductivity and massless electron transportation, graphene has been considered …

Graphene is a 2D material with fruitful electrical properties, which can be efficiently
prepared, tailored, and modified for a variety of applications, particularly in the field of …

Efficient and selective methods for graphene functionalization are needed because they
allow tuning of the graphene surface and electronic properties. To date, graphene has been …

The vast and yet largely unexplored family of graphene materials has great potential for
future electronic devices with novel functionalities. The ability to engineer the electrical and …

Due to their exceptional thermal, electrical, magnetic, optical, and mechanical capabilities as
well as their substantial specific surface area, graphene-based materials have gained a …

Graphene, as an emerging 2D material, has been playing an important role in flexible
electronics since its discovery in 2004. The representative fabrication methods of graphene …

Graphene came to the forefront in the nanosciences in the early 2000s, in particular, when
high-quality graphene with atomic thickness and two-dimensional extension in the …