Scientists in Brazil have made the largest chemically synthesised graphene sheet ever reported. Graphene – single-atom-thick sheets of carbon – is a material that has seemed full of possibilities ...

Single-atom catalysts are at the cutting edge of catalysis research ... In SACs, the catalytically active single atoms are anchored onto supports such as carbon, metal oxides, or graphene. This ...

MIT physicists have taken a key step toward solving the puzzle of what leads electrons to split into fractions of themselves.

Graphene, a single layer of carbon atoms said to be the thinnest and strongest substance ever recorded, was hailed as a gamechanger after Prof Konstantin Novoselov and Prof Andre Geim revealed it ...

Graphene is the name for a honeycomb sheet of carbon atoms. It is the strongest known material, yet it is also stretchy. It can conduct electricity 100x better than silicon and heat 10x better than ...

Graphene is a single layer of carbon atoms arranged in ... They repeated the peeling process until the graphite was one atom thick, then dissolved the tape away, leaving graphene.

Tuesday marked 20 years to the day since professors Andre Geim and Konstantin Novoselov were able to extract two-dimensional crystal graphene, a single atom thick, by essentially using sticky tape ...

The synthesis of single-atom layer versions of a range of atoms is currently all the hype, with graphene probably the most well-known example of this. These monolayers are found to have a range of ...

However, if a single electron is kept hostage on the ... using devices made from carbon pancakes just one atom thick. In a graphene sheet, each carbon atom forms bonds with three other carbon ...

The researchers created a prototype test chip using suspended nanosheets such as graphene, a one-atom-thick sheet of carbon atoms. The graphene sheet was stretched like a trampoline in a sealed ...

In a recent study in Nature, scientists reported that moiré materials made from semiconductor materials can also be ...

The hydrogen atom (blue) hits the graphene surface (black) and forms an ultra-fast bond with a carbon atom (red). The high energy of the impinging hydrogen atom is first absorbed by neighboring ...