Exploring breakthrough metallopolymer-based drug delivery systems that combine metals and polymers to revolutionize cancer, infection, and chronic disease treatment.
Exploring the groundbreaking chemistry of the cyaphide ion (CP⁻) and its transformative role in molecular architecture and materials science.
Exploring how carbonaceous chondrites preserve the raw ingredients of our solar system's birth and their role in the origins of life.
Exploring how synthetic multivalent glycoconjugates amplify binding strength to block viral infections, disrupt cancer progression, and reprogram immune responses.
Exploring how chemists use desymmetrization to synthesize (+)-catharanthine, a key anticancer compound, through elegant molecular manipulation.
Exploring the crucial role of nitrogen donor ligands in organometallic chemistry and homogeneous catalysis for sustainable molecular transformations.
Exploring copper-catalyzed methods for efficient synthesis of N,N-dialkylformamide sulfonamides in pharmaceutical manufacturing
Discover how ruthenium catalysts transformed the classic Barton-McCombie reaction through a pseudoreversible radical pathway, enabling efficient O-to-S alkyl migrations.
Exploring the dual nature of azodicarboxylates in organic synthesis - from explosive hazards to powerful tools for drug development and green chemistry.
Explore how hypervalent iodine(III) reagents are revolutionizing sustainable chemistry with their unique reactivity and environmental benefits.