Explore how density functional theory reveals how graphite captures radioactive iodine through quantum physics and physisorption processes.
Explore how inorganic photoresists using metals like hafnium and tin are overcoming the limits of organic materials to enable smaller, more powerful semiconductor technology.
Explore how the 1990 International Conference on Electronic Ceramic Materials revolutionized technology through interdisciplinary collaboration and scientific innovation.
Explore how ionic liquids and poly(ionic liquid)s are revolutionizing materials science by enabling precise control over inorganic material formation at the nanoscale.
How scientists are designing ultra-thin, super-smart films to protect everything from skyscrapers to smartphones from the relentless attack of corrosion.
Explore the fascinating chemistry behind lime-stabilized materials and how oyster shells provide a sustainable alternative for soil stabilization in construction.
Exploring how nanoparticle-enzyme interactions are transforming biotechnology, medicine, and industrial processes through enhanced catalytic activity.
Discover how a nanomagnetic molecularly imprinted polymer acts as a smart sponge to detect antibiotics in milk, enhancing food safety and combating antibiotic resistance.
Explore the fundamentals and applications of photocatalysis, a light-driven technology transforming environmental cleanup and renewable energy production.
Explore how novel precursor sources are transforming selective epitaxy of compound semiconductors, enabling breakthroughs in electronics, photonics, and quantum computing.