From tires to clothes to shampoo, many ubiquitous products are made with polymers, large chain-like molecules made of smaller subunits called monomers, bonded together.
Next-generation batteries will probably see the replacement of lithium ions by more abundant and environmentally benign alkali metal or multivalent ions.
A new hybrid material developed by scientists at the University of Liverpool may bring the dream of carbon-free nuclear fusion power a step closer.
As smart cities continue to gain momentum, HORIBA MIRA has stated it is critical that automotive and infrastructure providers work more collaboratively to bring connected and automated mobility (CAM) into the mainstream.
Imagine a device that can sit outside under blazing sunlight on a clear day, and without using any power cool things down by more than 23 degrees Fahrenheit (13 degrees Celsius). It almost sounds like magic, but a new system designed by researchers at MIT and in Chile can do exactly that.
MIRTEC, ‘The Global Leader in Inspection Technology’ is pleased to announce that it has installed one of its Award-Winning MV-6 OMNI 3D AOI Systems at Universal Instruments’ Advanced Process Lab (APL) in Conklin, New York. Universal’s APL offers comprehensive research, analytical and advanced assembly services that enable manufacturers to realize rapid product introduction, maximize yield and optimize reliability.
Chemists at the Center for Multidimensional Carbon Materials (CMCM) located in the Institute for Basic Science (IBS, South Korea), have demonstrated the synthesis of a unique type of 2D metal organic framework (MOF) with stimulating magnetic properties and electrical conductivity.
Scientists at McGill University have acquired stimulating new knowledge about the properties of perovskites, one of the world’s most sought after materials for developing a more efficient, stronger, and economical solar cell.
Basic elements such as hydrogen, carbon, oxygen, and so on are the building blocks of rationally designed chemicals. Such elements can be mixed in various ways to achieve a variety of chemicals with diverse characteristics.
Angle-Resolved Photoemission Spectroscopy (ARPES) is used to study the electronic structure of the surface of solids. The ARPES technique employs a synchrotron or laser beam to interact with a sample, resulting in emission of photoelectrons. By analyzing the energy and momentum of the photoelectrons, the Fermi surface of the material can be mapped.
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