A research team from the Department of Solid State Chemistry of the Lobachevsky University worked under Dr. Evgeny Bulanov to devise an innovative technique for obtaining bismuth-containing apatite.
MSU-based researchers have created a new material based on a silicon-titanium gel and a dye agent. The material is able to rapidly identify if detrimental oxalate ions are present in food products even in field conditions.
The future of electronic gadgets lies partially within the “Internet of Things” - the network of devices, appliances, and vehicles fixed within electronics to facilitate connectivity and data exchange.
Although it may appear as if batteries come in every size & shape, as electronic devices, they become smaller without any decrease in their energy & power demands. Hence, they pose challenges to develop batteries that can fit into smaller spaces without affecting performance.
A team of chemists has formulated an MRI-based method that can swiftly diagnose what affects certain types of batteries—from establishing how much charge is present to detecting internal flaws - without having to open them.
Researchers created an elastic biodegradable hydrogel for bio-printing of materials with the ability to emulate soft tissues of the human body. In bio-printing, live cells are used within the scaffolding of the new tissues, and it could prospectively revolutionize cell printing.
Physicists and material scientists have been successful in building a motor and an energy storage device from a single component. They used an elastic polymer fiber closed into a ring that was designed to rotate on the application of an external energy supply.
A number of beneficial substances—for instance, pharmaceuticals, dyes, and advanced materials—on which our daily life is dependent, are produced by organic chemistry. Yet, it is extremely challenging to predict the characteristics of chemical substances.
Scientists at Duke University have developed the first metal-free, dynamically tunable metamaterial for manipulating electromagnetic waves. The method could form the foundation for technologies spanning from optimized security scanners to new types of visual displays.
Prototype devices developed using an exotic material with the ability to conduct a current density 50 times more than traditional copper interconnect technology have been demonstrated by engineers from the University of California, Riverside.
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