Proposing a New Theory to Explain Glass Transition
Glass is fascinating because, even though it seems transparent and rigid, it is actually a complicated material.
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Glass is fascinating because, even though it seems transparent and rigid, it is actually a complicated material.
Recent research conducted by the Chemistry Department at the University of Liverpool has achieved a significant milestone in the realm of polymer science.
The modern world is filled with synthetic polymers, long-chained molecules designed by scientists to fill all manner of applications.
Acetone is a critical chemical industry input that is used in the production of a broad range of products, including adhesives, antibiotics, electronic components, solvents and removers, inks, and vitamins.
Beyond-silicon technology demands ultra-high-performance field-effect transistors (FETs). Transition metal dichalcogenides (TMDs) provide an ideal material platform, but the device performances such as contact resistance, on/off ratio, and mobility are often limited by the presence of interfacial residues caused by transfer procedures.