Electronic CHANGE TOPIC

Electronic properties news, December 2017

Scientists have developed a way to integrate transparent conducting metal oxide contacts with 2D semiconductors to produce see-through electronic devices.

Researchers have created tiny electronic ‘graphene tweezers’ that can grab biomolecules and nanoparticles floating in water with incredible efficiency.

For the first time, scientists have observed ion migration within hybrid perovskite crystals and related that to declines in its light-absorbing ability.

A novel method for synthesizing nanoparticles of europium(II) oxide is allowing scientists to study the properties of this ferromagnetic semiconductor.

Scientists have disentangled the intriguing dynamics of how electron stripes melt and form on quantum materials.

A novel. high-quality magnetoelectric material is allowing scientists to study cross-coupling between electric and magnetic properties.

Researchers have succeeded in growing semiconducting graphene nanoribbons with a regular armchair edge and incorporating them into nanotransistors.

A prototype of a sodium battery with a solid electrolyte is safer and can store more energy than a lithium-ion battery.

Scientists have developed a technique for combining carbon nanotubes with ceramics and polymers to form novel composite materials.

Physicists have tested which films containing different combinations of magnetic nanostructures can generate spin currents most effectively from heat.

Scientists have discovered why the two best methods for probing the electronic states of topological insulators produce different results.

A novel epitaxy method that incorporates van der Waals’ forces is able to grow thin films of the semiconductor germanium on mica.

Smart textiles and wearable electronics benefit from graphene.

Conductor gives delicate control over electron spin.

Graphene’s unique properties makes it a potential candidate for transparent, stretchable electronics in displays, wearable health monitors, or soft robots.

Pre-treatment process controls the chirality of SWNTs by tuning the degree of oxidation of the Co catalyst during growth.

Atomically precise heterojunctions in graphene nanoribbons could enable the design of a new generation of more efficient and powerful nanoelectronics

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