A fully scalable method to synthesize atom-precise platinum clusters has been developed by scientists at Tokyo Institute of Technology (Tokyo Tech). These platinum clusters have potential use in catalytic applications.
New lithium electrodes coated with indium could lay the foundation for longer-lasting, more powerful, rechargeable batteries.
Legos and Playdough are two very popular childhood building blocks. But what could one use to create something extremely small—a structure measuring lesser than the width of a human hair?
Scientists from the Moscow Institute of Physics and Technology (MIPT) and the Institute for Theoretical and Applied Electrodynamics (ITAE) of the Russian Academy of Sciences (RAS) have worked in cooperation with a collaborator from RIKEN (Institute for Physical and Chemical Research in Japan) to provide theoretical proof of the presence of an innovative class of materials.
Self-healing materials are capable of repairing autonomous defects, such as dents, cracks or scratches, and then resume their original shape. To accomplish this, these materials must comprise of several components whose collective properties deliver the desired characteristics.
A new study suggests that the need for applying chemical treatments to fabrics in order to achieve properties such as magnetism or fluorescence could one day be eliminated by cotton that is grown with molecules endowing these appealing properties.
Physicists from UCLA have invented a new technique for synthesizing a distinctive new molecule that can, in due course, be used in fields such as food science, medicine, and others. The study also demonstrates the technique for analyzing chemical reactions on a microscopic-scale by applying tools of physics, and has been published in the Science journal.
It is a known fact that glass is omnipresent; while anyone is viewing outside through a window or scrolling down a smartphone, chances are that a glass layer exists between the person and the item being viewed.
Catalysts can be defined as agents that initiate chemical reactions, speed them up or considerably increase the yield of the desired product.
A stretchy miracle material capable of being used for developing greatly resistant smart devices and scratch-proof paint for cars has been discovered by a group of researchers from Queen’s University Belfast.
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