Controlling propylene oxide and ethylene oxide ratios helps lubricating oil compounds resist electric leakage in motor drives.
Acidifying low molecular weight starters prevents double metal cyanide catalyst deactivation during continuous oxyalkylation at high temperatures.
Segmented alkoxylation with water removal prevents exothermic secondary reactions, ensuring reactor safety while increasing productivity.
Microstructured flow channels split and recombine liquid reaction mixtures to achieve ideal plug flow profiles in polyether alcohol synthesis.
A continuous oxyalkylation process uses a double metal cyanide catalyst to produce low molecular weight polyether polyols.
Ion-exchanged aluminosilicate catalysts simplify separation procedures and reduce polyglycerol by-products during polyglyceryl ether synthesis.
Acid catalysts enable renewable olefinic alcohol incorporation into polymers, bypassing restrictive starting material requirements.
Homogeneous base catalyst enables continuous phenolic glycol ether synthesis without salt filtration.
A continuous polymerization process using double metal cyanide catalysts at elevated temperatures to produce low equivalent weight polyether polyols.
Oxidative cleavage of polyfluorinated cyclic compounds using ruthenium tetroxide yields polyfluorinated dicarboxylic acids at mild temperatures.
Vanadium, niobium, or tantalum catalysts control isomer proportions in dipropylene glycol synthesis.
Lowering reaction temperatures prevents solidification in pipes and reduces thermal degradation by-products while maintaining alkoxylation efficiency.
Magnesium alkoxide compounds accelerate double metal cyanide catalyst activation for rapid polyether production.