Nanotechnologists are now able to create materials in which they can influence and precisely control the orientation of the magnetism at will. An interlayer just 0.4 nanometres thick is the key to this success.
Researchers have developed a transparent, bendable and sensitive pressure sensor. Healthcare practitioners may one day be able to physically screen for breast cancer using pressure-sensitive rubber gloves to detect tumors, owing to this newly developed sensor.
Researchers are creating tailor-made materials for cutting-edge research and perhaps a new generation of optoelectronic devices. The materials make it easier for the researchers to manipulate excitons, which are pairs of an electron and an electron hole bound to each other by an electrostatic force.
Atomic motion in a crystalline oxide that was used as a cathode in Li-ion batteries was directly demonstrated by state-of-an-art transmission electron microscopy, revealing the transient pathway of a chemical ordering reaction.