By demonstrating a new way to change the amount of electrons that reside in a given region within a piece of graphene, scientists have a proof-of-principle in making the fundamental building blocks of semiconductor devices using the 2D material.
Will it be possible one day to reconfigure electronic microchips however we want, even when they are in use? A recent discovery suggests as much. The researchers have demonstrated that it is possible to create conductive pathways several atoms wide in a material, to move them around at will and even to make them disappear.
Researchers observed a molecular shuttle powered by kinesin motor proteins and found it to degrade when operating, marking the first time, they say, that degradation has been studied in detail in an active, autonomous nanomachine.
Researchers have found an ingenious way to induce magnetism in graphene while also preserving graphene's electronic properties. They have accomplished this by bringing a graphene sheet very close to a magnetic insulator - an electrical insulator with magnetic properties.
Chemists have controlled the structure of a material to simultaneously generate both magnetisation and electrical polarisation, an advance which has potential applications in information storage and processing.
A team of scientists has developed, for the first time, a microscopic component that is small enough to fit onto a standard silicon chip that can generate a continuous supply of entangled photons.
A new study shows that when the chemotherapy drug Epirubicin is attached to nanodiamonds, the treatment is more effective and patients suffer from less side effects.
Chemists have synthesized novel transition metal-complexed cycloparaphenylenes (CPPs) that enable selective monofunctionalization of CPPs for the first time, opening doors to the construction of unprecedented nanocarbons.
Scientists from Europe's Graphene Flagship have demonstrated active, in-situ electrical control of energy flow from erbium ions into photons and surface plasmons.