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Atomic force microscopy has revealed the role of atomically thin layers of water in an energy storage material called crystalline tungsten oxide dihydrate.
Scientists have shown they can predict the failure of granular materials such as gravel by monitoring naturally arising acoustic vibrations.
A new technique can pinpoint the location of chemical reactions happening inside lithium-ion battery electrodes in three dimensions at the nanoscale level.
Scientists have used spiraling X-rays to observe, for the first time, chirality, or handedness, in swirling electric patterns in a layered material.
By utilizing flat coils with different shapes, scientists have adapted nuclear magnetic resonance to study nanomaterials and exotic states of matter.
Two-step thermal reduction process boosts conductivity and mobility of reduced graphene oxide (RGO), opening up new potential applications.
A new technique can create an individual fingerprint of the current-carrying edge states occurring in topological insulators or 2D materials.
Stress-corrosion cracking can occur when a metal is exposed to tensile stress and corrosion separately, as well as simultaneously.
As much as 100 times more heat than predicted by standard radiation theory can flow between the edges of two very thin semiconductor plates.
Scientists have verified a key prediction from a 55-year-old theory about how electrons move through one-dimensional nanotubes and nanowires.
Precision-synthsized porous graphene is transformed into a semiconductor and the most efficient filter.
Nanoscale diamond needles can bend and deform reversibly, like bristles on a brush, before breaking.
New strategies could translate exceptional attributes of nanoscale fibers like carbon nanotubes and cellulose nanofibrils into macroscale materials.
Scientists have induced a two-dimensional material to cannibalize itself for atomic ‘building blocks’ that go on to form stable structures.
Using computational simulations, scientists have discovered the process by which an iron-based superconductor collapses under pressure.
Scientists have developed a new electron microscopy method that allows them to observe the crystallization process for 2D materials.
Interview with Dr David Simpson from the University of Melbourne about diamond quantum probes.
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