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Researchers have used state-of-the-art computational tools to model the chaotic behavior of ‘strange’ metals down to the lowest possible temperatures.
Maximum Chern number can be reached and controlled in a real material
Doped graphene nanoribbons could help in quantum computing
graphene antennas could offer a flexible metal-free option for wearable electronics
For the first time, researchers have observed a quantum fluid known as the fractional quantum Hall state in a 2D semiconductor.
Scientists have developed a novel instrument for studying quantum materials that can make three kinds of atom-scale measurements simultaneously.
Researchers have developed a three-layer anti-reflection coating for making plastic sheets conductive and more transparent.
A carbon nanotube film possesses a combination of thermal, electrical and physical properties that could make it of use for next-generation smart fabrics.
A computational model for understanding how changes in material nanostructure affect conductivity could lead to new energy storage devices.
Researchers have developed a novel form of non-volatile computer memory, based on sliding atomically thin layers of metal over one another.
micropatterned substrate boosts perovskite light absorption
A new technique for making heterostructured materials uses ball milling to smash structurally incommensurate solids and then reassemble them.
Smart medicines could generate drugs and imaging agents when they come into contact with diseased tissues
Magic-angle quantum effects in twisted bilayer graphene
Topological insulators
Researchers have developed a new abrasion-based method for producing heterostructure devices based on 2D materials such as graphene.
Register for a free webinar presented by Prof Jeffrey C. Grossman, MIT.