Preparation By Hydroxy Compound Hydrogenation TRIZ Cases
- Hydrogenated Compound Production with Ammonia–Hydrogen Mixed Gas
A controlled ammonia concentration in hydrogenation gas improves product selectivity while reducing by-products and supporting renewable ammonia use.
- Cyclohexanone Production via Phenol Hydrogenation
Selective hydrogenation converts phenol to cyclohexanone, bypassing azeotropic separation costs.
- Cyclohexanone Plant Retrofit via Phenol Hydrogenation
Converting existing distillation equipment for phenol hydrogenation eliminates explosive mixture hazards and reduces energy consumption.
- Multi-tubular Reactor Catalyst Swap for Phenol Hydrogenation
Replacing benzene hydrogenation catalysts with phenol variants in existing multi-tubular reactors enables direct cyclohexanone production.
- Levobunolol Hydrochloride Synthesis via Chiral Auxiliary
S-1-tert-butyl-epoxymethylamine mediates substitution with 5-hydroxy-1-tetralone to produce levobunolol hydrochloride.
- Cyclohexanone Production via Phenol Hydrogenation and Distillation
Tubular reactor hydrogenation minimizes cyclohexylbenzene side reactions to boost cyclohexanone yield.
- Cyclohexanone Purification via Sorbent Bed Poison Removal
Sorbent beds remove catalyst poisons from phenol mixtures, preventing deactivation and yield loss during hydrogenation to produce 99 wt% cyclohexanone.
- Cyclohexanone Production Heat Integration and Purification
Phenol hydrogenation converts exothermic heat to steam, reducing energy consumption while multi-step distillation achieves 99.5% purity.
- Solvent-Free Phenol Hydrogenation for Cyclohexanone Selectivity
Eliminating solvent disposal and energy consumption by conducting phenol hydrogenation in a solvent-free system with a cesium-promoted catalyst.
- Multi-tubular Reactor Adaptation for Phenol Hydrogenation
Modifying existing multi-tubular reactors with new catalysts reduces investment costs and energy consumption during phenol hydrogenation.
- Phenol Hydrogenation Dilution Gas Recycle System
Dilutes hydrogen with flammable gas to boost cyclohexanone throughput while recycling residual gases as fuel to cut energy consumption.
- Palladium Catalyst Treatment for Phenol Hydrogenation Selectivity
Treating palladium catalysts with basic salts enables high selectivity during phenol hydrogenation in alcoholic solvents.
- Cyclohexanone Production Process with Side-Product Extraction
A cyclohexanone production process extracts side-products from distillation fractions to maintain separation efficiency.
- Solvent-Free Phenol Hydrogenation to Cyclic Ketones
Palladium catalyst on carbon with alkali metal component enables hydrogenation of phenols to cyclic ketones without organic solvents.
- Cyclohexanone Purification via Hydrogenation of Enone Impurities
Hydrogenation converts enone impurities to cyclohexanone, resolving persistence issues that degrade downstream catalyst activity.
- Phenol Hydrogenation Heat Integration for Cyclohexanone Production
Integrating in-process heat exchange reduces steam heating and cooling water consumption during phenol hydrogenation.