Electronic CHANGE TOPIC

Electronic properties news, January 2018

Layered material proves to have handy electronic structure

Scientists have used spiraling X-rays to observe, for the first time, chirality, or handedness, in swirling electric patterns in a layered material.

The development of a new lithium-ion conducting ceramic textile could get us a step closer to practical solid-state lithium metal batteries.

A new tin-based perovskite solar cell allows 'hot' electrons to retain their high energy levels for longer than usual, which could help produce more power.

Twisting films of carbon nanotubes produces short lengths of strong, conductive fibers in about an hour, making this process much faster than spinning.

Cleaning nanotubes through heat and ion bombardment.

For the first time, researchers have compared measurements of a class of metals produced by neutron scattering with realistic theoretical calculations.

A nanostructure made from a fluoropolymer and metal oxide materials allows thin-film transistors to operate with unprecedented stability.

Photocatalyst based on titanium dioxide can turn carbon dioxide into usable fuel and reduce atmospheric carbon dioxide.

Hair-thin OLED fibers could have fashion and healthcare applications.

Researchers have discovered a way to flip an iron-based superconductor between superconducting and non-superconducting states using a microscope.

Researchers have found a way to produce a two-dimensional electron gas between insulating oxides on the semiconductor gallium arsenide.

The topological insulator trisodium bismuthide can be as electronically smooth as the highest-quality graphene-based devices.

By conducting systematic studies, researchers have provided a quantitative picture of how surface conditions control the growth of metal nanocrystals.

A novel method for removing contaminants from carbon nanotubes has helped to reveal why their electrical properties are so difficult to measure.

A method for encapsulating metals such as dysprosium and copper in a single layer of graphene could produce materials with novel properties.

Quantum effects allow samarium nickelate to mimic a shark's sixth sense, by detecting minute electric fields in salt water.

Lithium-ion batteries designed to be safer in an accident.

Read our latest series and find out about materials science researchers in New Zealand and Australia.

Jellyfish-inspired triboelectric nanogenerator can harvest energy from waves and power sensors that can detect fluctuations in the water surface.

Scientists have engineered ‘artificial graphene’ by replicating, for the first time, the electronic structure of graphene with semiconducting materials.

Electric eel inspires energy system for wearables.

Quick, split and make hydrogen from water.

Flexible stretchable bacterial bio-batteries.

Two-step thermal reduction process boosts conductivity and mobility of reduced graphene oxide (RGO), opening up new potential applications.

Solar power device like a double-glazed window offers new approach.

Batteries powered by sweat made completely from fabric

Using analytical techniques, scientists have discovered how the atomic structure of lithium-rich battery cathodes evolves during charging and discharging.

Scientists have developed a new method for produce semiconducting graphene nanoribbons by heating a specially-prepared polymer.

Scientists have developed an entirely textile-based, bacteria-powered bio-battery that could one day be integrated into wearable electronics.

Scientists have produced a ‘topological excitonic insulator’ for the first time by cooling stacked semiconductors to below 10K.

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