A carbonate-coordinated metal complex enables site-specific, kinetically inert protein labeling without harsh oxidation or complex purification.
An imidazole-alkoxide organometallic precursor improves volatility and thermal stability for uniform ALD and CVD thin film deposition.
A nitrate-coordinated metal complex enables site-specific, kinetically inert labeling of His-tagged proteins without oxidation steps or batch variability.
A carbonate-coordinated metal complex enables site-specific, kinetically inert protein labeling while avoiding oxidation damage and batch variability.
Plasma pre-treatment and cyclic precursor-reactant purging improve metal deposition selectivity on transition metal regions while limiting growth on silicon.
Replacing scarce platinum and iridium, a cobalt MOF on conductive carbon paper enables stable oxygen evolution with lower material cost.
A cobalt compound combines beta-diketonate and amine ligands for vapor pressure, thermal stability, and productive ALD films.
Alloying cobalt with boron or phosphorous reduces stress accumulation during thermal cycling, preventing delamination in semiconductor devices.
Modified cobalt precursor structures resolve thermal stability and deposition rate contradictions in semiconductor manufacturing.
A diazadienyl compound with alkyl substituents vaporizes and decomposes to deposit metal thin films.
Tailored precursors deposit high quality inorganic films at moderate temperatures without premature decomposition.
A metal cyanide complex catalyst enables epoxide and carbon dioxide copolymerization through a two-step self-assembly preparation method.
Segmented precursors balance volatility and thermal stability to prevent premature decomposition during atomic layer deposition.
Modified diazabutadiene metal precursors decompose without oxidizing co-reagents, protecting adjacent device films during atomic layer deposition.
Low-melting bis(N,N′-diisopropyl-propionamidinate)cobalt prevents piping solidification and reduces manufacturing costs during high-quality film formation.
Quaternary ammonium salt in the catalyst maintains activity during polymerization, resolving the trade-off between molecular weight regulation and productivity.
Cobalt complexes with bis(phosphine) ligands catalyze arene borylation, replacing expensive precious metals to lower costs.
A novel amidine copper compound enables high-quality metal thin film deposition via chemical vapor deposition.
A modified double metal cyanide catalyst complex accelerates polyether polymerization rates.
Cobalt silylamide and carbonyl precursors volatilize to deposit high-purity cobalt films via atomic layer deposition.
Pressurized carbon dioxide mediates deprotonation in aqueous media, reducing reaction time and energy consumption while maintaining high yields.
Cobalt chiral solvating agents resolve enantiomer ratios by shifting NMR signals without derivatization.
Pentadienyl ligand substitution eliminates toxic carbonyl release and phosphorus contamination during cobalt silicide film formation.
Metal organic frameworks replace toxic hydrazine derivatives with unsaturated aromatic linkers to achieve rapid ignition delays under 50 milliseconds.