Organic Compound Preparation TRIZ Cases

Replacing thiophenol with sulfonium intermediates eliminates halogen byproducts and lowers production costs for aromatic sulfides.

Biarylmonophosphine ligands resolve slow aryl chloride coupling by optimizing electronic parameters to boost reaction rates and yields.

The process employs a polar organic solubilizing agent to partition rhodium into the aqueous phase, resolving high metal contamination in aldehyde products.

Cycloalkyl alcohol extraction recovers rhodium catalyst without thermal decomposition.

Aromatic ortho-diamine forms a separable adduct with biacetyl, removing impurities without strong acids or lengthy holding periods.

Au/TiO2 catalyst drives direct esterification of alkyl aldehydes with alcohols, eliminating water liberation and avoiding energy-intensive separation processes.

Auto-thermal reforming converts hydrocarbons into synthesis gas for alcohol production, reducing CO2 emissions and improving heat efficiency.

Toroidal fluidization ensures uniform shell thickness and concentration, overcoming non-uniform selectivity in vinyl acetate production.

Segmented vacuum distillation raises TBHP concentration while removing impurities to prevent exothermic risks during epoxidation.

A glycerin recovery system uses a reboiler and heat exchanging system to separate crude glycerin into finished product.

Molybdenum oxidation catalyst converts ethers to methacrolein, reducing water generation and operating costs.

Novel compounds inhibit ribonucleotide reductase by binding to the RRM2 subunit and disrupting enzyme activity.

Optimizing active mass coverage on the support body reduces overoxidation to COx while maintaining high acrolein conversion.

Continuous flow processing suppresses furfuryl alcohol homopolymerization, enabling high yield levulinic acid ester formation with inexpensive protic acids.

Acid treatment with hydrogen peroxide oxidizes formaldehyde to formic acid, preventing cyclization and boosting trimethylolpropane recovery yield.

Ammonium acetate mediates alkyl aromatic oxidation to yield high purity carboxylic acids, eliminating complex purification steps.

Porous natural layered silicate support with distributed zirconium oxide delivers high vinyl acetate monomer activity and selectivity.

Segmented distillation columns remove impurities like gamma-butyrolactone from 1,4-butanediol to reach >99.5% purity for polyester production.

Reductive calcination of metal oxide precursors creates active heterogeneous catalysts for ethylenamine synthesis.

Diene compounds inhibit TAK1 kinase activity, reducing tumor cell invasion and metastasis in late-stage cancer where TGF-beta1 promotes spreading.

A naphthalene formaldehyde resin enables wet process coating of lithography underlayer films.

Partial hydrolysis of sludge in a tubular reactor converts waste into levulinic acid, offsetting high disposal costs.

Stepwise hydrolysis converts N-substituted bis(ether phthalimide) to bis(ether anhydride) without acetic anhydride or intermediate isolation.

Base catalysts convert lactide and methyl acetate into technical grade acrylic acid, avoiding expensive propylene oxidation costs.

A reductive amination process uses carbon monoxide as the reductant with a rhodium catalyst to produce amines from carbonyl compounds.

A polyoxometalate catalyst framework enables ligand sublimation at low temperatures.

Faujasite zeolites convert dimethyl carbonate to oxygenated compounds, reducing catalyst deactivation from coke formation.

Enzymes disrupt wet microorganisms to extract lipids, avoiding energy-intensive drying and toxic solvents while preserving fatty acid integrity.

Transition metal catalyst enables hydrodeoxygenation of carbohydrate precursors to produce valuable acyclic compounds.

Mandelic acid forms diastereomeric salts with 3-amino-1-butanol, resolving enantiomers while avoiding complex multi-step enzymatic processes.

Synthesis routes for IAP antagonist compounds replace hazardous tert-butyl lithium to resolve yield and purity contradictions.

A heterogeneous catalyst system enables the reaction of alpha-hydroxycarboxylic acids with nitrogen compounds to produce racemic amino acids.

Segmented desalting removes salts from high-boiling materials to prevent reboiler fouling during thermal decomposition.

Homogeneous ruthenium catalyst resolves chemoselectivity versus conversion trade-offs by preserving carbon-carbon double bonds during substrate reduction.

Vegetable oil fatty acid esters with fusel alcohols reduce minimum film forming temperature in paint formulations.

A gold-palladium-platinum catalyst supported on titanium dioxide enables oxidative esterification of aldehydes with alcohols.

Solvothermal synthesis produces ferric oxide nanoparticles with controlled morphology using specific solvents.

A chiral auxiliary mediates N-alkylation to synthesize the target amide while preserving stereochemical integrity.

Extracts diol byproducts as cyclic carbonates to drive equilibrium and reduce methanol consumption.

Liquid-liquid extraction with ethyl acetate purifies aliphatic taurate amides by separating fatty acids from the aqueous product phase.

Replacing sodium methoxide with a recyclable basic ionic liquid eliminates salt wastewater and reduces separation energy during dimethyl malonate production.

A supercritical fluid reactor eliminates polymerization blockage risks while maintaining high conversion rates in unsaturated carboxylic ester production.

Replacing telluric acid with dioxide lowers cost while hydrothermal parameters ensure M1 phase purity for ethane oxidation.

Optimized porous carbon material supports catalysts via controlled mesopore volume and specific resistance.