Additives TRIZ Cases

Synergistic additive package lowers electrical conductivity to 80,000 pS/m while maintaining oxidation control and antiwear performance.

Optimized calcium and magnesium detergent ratios reduce timing chain stretch to 0.1% while maintaining wear resistance against soot-induced abrasion.

Amide wax prevents thermal decomposition and mold fouling during high-temperature molding.

A solid lubricant block transforms into a semi-solid under mechanical pressure to provide reliable friction reduction.

Lubricant composition with aromatic dispersants and oil-soluble titanium compounds improves deposit control.

A zinc-containing dispersant prevents deposit formation in hydraulic systems.

Ultrasound-assisted synthesis creates stable submicrometer carbon additives that reduce wear and maintain chemical integrity under extreme conditions.

N-substituted oxalic acid bisamides with 12 to 22 carbon hydrocarbyl groups raise static friction while maintaining anti-shudder durability.

A low ash lubricating oil composition uses a polymeric friction modifier and molybdenum compound to reduce surface friction.

Polymerized defoaming agents prevent precipitation under high centrifugal forces, preserving defoaming performance in transmissions.

Replacing phosphorus additives with branched borate esters eliminates copper and lead corrosion while maintaining antiwear protection.

Specific magnesium and calcium detergent concentrations in lubricating oil suppress low speed pre-ignition events while maintaining TEOST 33 performance.

Organic long-carbon chain coatings stabilize self-dispersible nano copper, replacing multiple additives to reduce formula complexity and cost.

Phosphorus-containing additives preserve electrical resistivity during aging, preventing electrostatic discharge and copper corrosion.

Antioxidants and metal chelators stabilize medium chain triglycerides, preventing oxidation while preserving biodegradability.

A belt lubricant concentrate uses monocarboxylic acids and surfactants to reduce friction on conveyor belts.

Optimized Formula I compounds swell elastomeric seals in low-swelling base oils, reducing additive concentration needs.

Liquid cyclic sulfates and carbonates swell elastomeric seals in low-polarity base oils, eliminating solid raw material handling challenges.

A marine diesel lubricating composition uses specific detergent ratios to reduce wear and deposit formation.

A lubricant composition incorporating sterically hindered aromatic amines or phenols to provide anti-corrosion protection for electric vehicle propulsion systems.

Replacing toxic organophosphates with hydrogenated castor oil raises auto-ignition temperature above 1000°F while eliminating personnel hazards.

Branched tertiary amines and zinc dithiophosphate additives resolve solubility and wear trade-offs, reducing friction on bronze bushes without corrosion.

A lubricating oil composition uses fatty acid partial esters and amine compounds to reduce friction in internal combustion engines.

A block copolymer with controlled molecular weight distribution acts as a viscosity modifier in lubricating oil compositions.

Modified thiadiazole additives maintain antiwear performance while reducing sulfur and phosphite content to meet environmental standards.

Alcohol-initiated propylene oxide homopolymer lubricant prevents elastomer shrinkage and extends fluid life in acidic environments without barium additives.

Fine fluorine resin dispersion improves sliding without reducing mechanical strength.

A lubricant composition combines a polymeric organic friction modifier with a citric acid ester to reduce mechanical friction.

Incorporating an ester-based friction modifier as a co-surfactant into a hybrid calcium detergent during manufacture.

Block copolymer polyalkylene glycols enhance hydrolytic stability in ester lubricants, preventing acid-driven additive degradation.

Succinimide dispersants increase total base number without ash content, maintaining fluoroelastomer seal compatibility.

Calcium sulphurised-phenate detergent protects aluminium-alloy surfaces from wear while eliminating ZDDP additives that poison catalysts and increase emissions.

Replacing restricted alkylphenols with sulfurized catecholates improves detergent performance while maintaining seal compatibility.

Soluble fatty amines neutralize sulfuric acid and passivate metal surfaces, reducing engine part losses while minimizing ash formation.

Specific alkyl substitution in novel dithiophosphate compounds prevents in situ degradation during transport, extending lubricant stability four-fold.

Engine lubricant additive composition reduces boundary and thin-film friction through a specific mixture of metal dihydrocarbyl dithiophosphate compounds.

Graphene additives replace multiple separate chemical packages with one formulation, eliminating complexity while providing anti-wear and corrosion protection.

A lubricating oil composition blends triazole and sulfur compounds to enhance wear resistance.

A lubricating oil composition with specific viscosity and additive ratios reduces oil consumption.

A refrigerator oil composition containing a polyalkylene glycol block copolymer reduces friction between metal components.

A lubricating composition combines mineral base oil with polyol esters to enhance oxidation resistance.

Reacting mercaptophenol with oxirane creates a protected mercaptophenol dispersant that reduces engine deposits while maintaining seal compatibility.

Replacing metal-containing detergents with amine salt friction modifiers reduces harmful emissions while sustaining fuel economy in diesel engines.

A polyetheramine organic friction modifier reduces boundary and thin-film friction in non-aqueous lubricant compositions.

Molybdenum chalcogenide nanoobjects with polymeric chains modulate lubricant viscosity to resolve the trade-off between friction reduction and fuel economy.

A lubricant composition using fatty triamines to reduce friction across steel and carbon coating contacts.

Alcohol ethoxylate phosphate ester compounds reduce abrasive wear from high Basicity Index while neutralizing acids from sulfur fuels.

Polyalkenyl succinic anhydrides prevent haze and sediment in additive concentrates, enabling higher friction modifier treat rates for improved fuel economy.

Neutral phosphite ester antiwear agents and antioxidants in the lubricant suppress deposit formation on sliding parts under high pressure.

Block copolymer polyalkoxylates prevent oil gelling in mineral oils while lowering friction coefficients to enhance engine energy efficiency.