Graphene is a one-atom thick, two-dimensional layer of carbon atoms in a honeycomb structure. Its intriguing electrical, optical, and mechanical qualities have sparked monumental interest from various scientific fields.
By Brett Smith
6 Nov 2018
Researchers from Brown University have discovered a method to guide nanoscale self-assembly as well as analyze DNA and other biomolecules.
By Isabelle Robinson
7 Sep 2018
Graphene has a lot of potential for many industries, and this is due to its vast amount of properties that make it an excellent material for so many different applications.
By Liam Critchley
7 Sep 2018
On investigating the electron spin g factor in graphene, Researchers discovered that, this factor is surprisingly insensitive to external effects such as mobility, density and charge carrier type.
When it was first discovered, Graphene promised to be a revolutionary, technological breakthrough. But, as years passed by, it seemed graphene would never live up to its potential.
Characterizing the electrical properties of graphene and other 2D materials is rapidly becoming a bottleneck for industrial applications. Even though large-scale production of superior-quality graphene has rapidly progressed, development of practical characterization methods has lagged behind.
Graphene is gaining traction as a potential material, with applications ranging from aerospace, lighting, energy to optoelectronics and electronics. This article discusses four fabrication techniques and three potential applications of graphene.
This article describes the range of graphene films on polyethylene terephthalate polymer (PET) available from Graphenea.
In the growing transparent conductor market, the potential of graphene as an alternative to indium tin oxide (ITO) is gaining significance, especially in the development of highly portable, flexible devices.
In a research paper, Graphenea showed the use of graphene as an intermediary layer to grow commercially important GaN-on-silicon devices.