Explore how computational studies are revolutionizing our understanding of life's origins through digital simulations of prebiotic scenarios.
Discover how scientists use KrF excimer lasers and phenylhydrazine to modify fluorocarbon polymer surfaces, making non-stick materials like Teflon® bondable and adhesive.
Explore how chemistry provided the fundamental toolkit to understand, detect, and neutralize the SARS-CoV-2 virus through mRNA vaccines, diagnostics, and public health measures.
Explore how chemical engineers use modeling and optimization to create expandable polystyrene in semi-batch reactors for better insulation and packaging materials.
How scientists are twisting and tweaking atomic-scale platinum alloy nanowires to power a greener future through enhanced oxygen reduction reaction.
Explore the fascinating journey of carmine dye - from ancient Aztec cultivation to modern scientific understanding of its chemistry and biological function.
Discover how 3D cell culture systems are revolutionizing medical research by creating more accurate models of human tissues and organs.
Discover how laser surface treatment transforms CFR-PEEK composites, creating unbreakable bonds through microscopic surface modifications.
Explore the fascinating work of Professor Nicholas W. Tschoegl in rheology - the science of how materials flow and deform, from Silly Putty to industrial polymers.
Explore the science, environmental impact, and future of lithium-ion batteries - the technology powering our modern world and sustainable energy transition.