Explore the fascinating world of enzyme catalysis and protein folding, from classic models to cutting-edge discoveries about distal mutations and AI-powered structure prediction.
Explore how machine learning is revolutionizing catalyst design by bridging the gap between computational accuracy and efficiency in heterogeneous catalysis.
Explore how combinatorial materials science is accelerating catalyst discovery through automation, parallel synthesis, and high-throughput screening.
Discover how hollow structured nanoreactors are transforming chemical processes through biomimicry and nanotechnology.
Exploring breakthroughs in light alkane activation that promise to transform abundant natural gas resources into valuable chemicals through efficient, sustainable processes.
Explore how nanocatalysts are transforming chemical processes with enhanced efficiency, selectivity, and sustainability through quantum effects and high surface area.
Discover how FTIR spectroscopy is bridging the pressure gap in catalysis research, revealing atomic-level details of chemical reactions under realistic conditions.
Explore how pyCatalystReader and NLP technologies are revolutionizing catalysis research by automatically extracting and organizing knowledge from scientific papers.
Exploring sulfonic acid functionalized ordered mesoporous materials as sustainable catalysts for fine chemical synthesis and green chemistry applications.
Explore how combinatorial materials science is revolutionizing catalyst discovery through parallel experimentation, AI integration, and high-throughput screening technologies.