Organic Compound Preparation TRIZ Cases

A hydrocarbon conversion process recycles syngas components into alcohol synthesis reactors.

Ion exchange resin catalyzes isoproterenol hydrogenation to reduce impurities.

Coalescers separate mixed acid and organic phases, reducing internal circulation by 10% and preventing reactor plugging.

Phosphoric acid catalyzes benzoic acid and glycol ether reactions to form esters while azeotropic distillation removes water and by-products.

In situ alkali metal molybdate modifiers inhibit molybdenum oxide loss, minimizing reactor scaling while maintaining acrylonitrile production efficiency.

A platinum and vanadium catalyst on a carrier enables amide hydrogenation under mild conditions.

Segmented flow in a tubular reactor eliminates localized hot spots that cause cyanohydrin thermal decomposition during exothermic reactions.

Integrating cracking with purification reduces equipment complexity and wastewater contamination.

Continuous single-step hydrolysis at constant temperature yields high levulinic and formic acid selectivity without complex intermittent cooling.

One-pot synthesis of 3-amino-3-cyclobutylmethyl-2-hydroxypropionamide in dimethyl sulfoxide eliminates cyanide waste and boosts yields above 80%.

A doped ZnO catalyst achieves high selectivity for higher alcohols by eliminating Fischer-Tropsch elements and optimizing copper or gallium content.

Replacing carbon monoxide with cyanogen halides simplifies anthranilic diamide synthesis, reducing hazardous material usage and cost.

Anionic polyelectrolyte catalyst system couples ethylene and carbon dioxide to form metalalactone intermediates.

Resorcinol carboxylic acids block electrophilic positions during synthesis, reducing byproducts and minimizing THC content while maintaining production yield.

Ruthenium and iridium catalysts transform racemic imines into cis-configured cyclic amines, resolving substrate scope limitations in asymmetric synthesis.

N-oxyl inhibitors prevent free-radical polymerization in monomers, then extract to allow desired synthesis.

Direct cyclization of fluoroalkylacetoacetates with hydrazines eliminates complex purification steps and reduces production costs.

Alkylphenol extraction separates levulinic acid from acidic catalysts, enabling direct reuse and reducing downstream purification complexity.

Segmented distillation with cation exchange resin removes high-boiling impurities, enabling lower-purity feedstock use while maintaining product quality.

A vinyl polymer melt suspends the catalyst during liquid phase glycerol dehydration, eliminating solvent distillation that causes acrolein product loss.

Integrated methanol process recovers hydrogen from purge gas for ammonia synthesis.

Novel polyethylene glycol derivatives enable high-quality bioactive polypeptide conjugates via multi-step sulfonation and methanesulfonylation.

Elevated temperature carbonation and seed crystals transform flat leaflets into compact crystals, improving filtration speed and purity.

Epoxycarboxamide ring-opening with ammonia yields enantiomerically pure beta amino alpha hydroxy carboxamides.

Ethanol buffer mobile phase simplifies F-18 amyloid beta ligand production by eliminating re-formulation steps required with acetonitrile systems.

Sulfonate compounds synthesized from lignin degradation products exhibit strong surfactant properties.

A process for producing long chain amino acids and dibasic acids using enzymatic oxidation of hydroxy fatty acids.

Ethanolamine reacts with a carbon oxide delivering agent to form higher ethylene amines.

Catalytic epichlorohydrin addition suppresses side reactions, resolving low yield and high cost issues in glycidyl methacrylate synthesis.

Phosphite ligands increase normal aldehyde production ratios while reducing catalyst poisoning and cost compared to phosphine systems.

A heteropoly acid catalyst synthesis method maintains molybdenum in its highest oxidation state using hydrogen peroxide and air contact during digestion.

Co-oligomerizing ethene with n-butene controls C8 branching, stabilizing ester viscosity despite fluctuating raw material quality.

Hydrogenation of methyl glutaronitrile with a cobalt chromium nickel catalyst achieves high conversion rates while suppressing heavy byproduct formation.

A continuous acetylation process converts lactic acid to (S)-2-acetyloxypropionic acid using a heterogeneous catalyst in an acetic acid solvent.

Selective crystallization removes impurities to exceed 99.5% purity, resolving low-grade synthesis limits in drilling operations.

A catalyst comprising molybdenum, vanadium, niobium, cerium, titanium, zirconium, and precious metals converts light alkanes into oxygenates.

Anhydrous potassium alkoxide catalyzes alcohol and nitrile reactions to form high-purity dinitrile compounds efficiently.

A linear member guides falling catalyst granules into vertical reactor tubes, preventing uneven density that causes flow bias and reduced yield.

Side discharge removes acetone and metal ions from organic solvent, preventing substrate contamination in semiconductor processes.

Iron oxide cores with discrete gold particles reduce material costs while maintaining catalytic efficiency and magnetic recoverability.

Counter current flow in serial reactors boosts methyl methacrylate yield to over 95 percent while minimizing fouling.

A diphosphite ligand with methyl and tert-butyl wings enhances rhodium catalytic activity in olefin conversion.

Sugar ester HLB modifiers improve melt flow in highly neutralized ionomers, avoiding discoloration and blooming from traditional additives.

Aryl coupling synthesizes bridged bi-aromatic ligands without protecting groups, reducing reaction steps and production costs.

Optimizing the crystallinity of a molybdenum-bismuth-cobalt catalyst resolves the trade-off between high acrolein yield and rapid performance deterioration.

Chromatography removes ammonium sulfate impurities, lowering costs and improving product quality.

Phosphorus ligands reduce palladium usage and suppress homocoupling in biphenyl synthesis via Suzuki coupling.

Sequential anhydride and acid addition controls mixed polyol ester composition while reducing reaction time compared to simultaneous methods.

Adding acidic catalyst removers neutralizes basic catalysts into soluble salts, preventing column plugging and ensuring high yield.