Carbon layers inflated on silicon carbide conduct electricity much better than scientist had previously predicted. Physicists have developed nanoribbons of Graphene, the single atom thick carbon that can conduct electrons much better than theorists predicts even for the most idealized form of materials in existence. The discovery promises a leap into technological advancements in the world of pricey electronics. For long, researchers have been hoping for a revolutionary material that could outperform traditional materials like silicon and Graphene promises exactly that.

In Graphene, electrons tend to move speedier than in other materials when kept at a room temperature. However, that approach tends to cut sheets of Graphene into narrow ribbons that are essential to create wires of nano-scale circuit leaving the edges ragged and thus disrupting the flow of electron. Recently at the Georgia Institute of Technology in Atlanta a team of researchers led by physicist Walt de Heer discovered that the narrow ribbons are able to conduct non-stop electric charges for around 10 micrometers without meeting any resistance. Compared to the old Graphene nanoribbons, these is a thousand times ahead.

Graphene Conducts Electricity Much Better

The narrow ribbons cut by de Heer’s team could conduct electrons 10x times better in comparison to theories of electron transport that their anatomy earlier suggested. This kind of unrestricted motion will lead to a world of electronics where circuits can transmit signals much faster without meeting any overheating issues along the way that acts as an obstacle in normal semiconductor chips.

The results which were published online in Nature Magazine suggest that “the electrons move down the edges of the ribbons more like light travels down an optical fiber, rather than the way electrons normally bump and scatter as they move in a standard conductor.” says de Heer.

Francisco Guinea, a hypothetical physicist at the Institute of Materials Science in Madrid, says that the discovery for this ballistic transport is totally stunning. The Graphene ribbons conduct electricity in a far superior manner than most theorists had predicts remains a puzzle in today’s world of physics. In fact, even de Heer is hesitant to speculate why they tend to behave in such a manner and thus accepts that they’re basic charge bearers.

A lot of physicists are sceptical that this result will proclaim an upheaval in the world of physics. A long time of hypothetical work have demonstrated that in restricted strips, disorder because of imperfections in the material will annihilate this fast conduction, says Antonio Castro Neto, chief of the National University of Singapore’s Graphene Research Center. If researchers ever take a look at longer strips they would see these impacts, he says. “It’s unavoidable. Sadly, Graphene is not the material one can use for advanced applications,” he includes, rather recommending semiconducting materials, for example, phosphorene.