Pigmenting Treatment TRIZ Cases

See how controlled iron incorporation on carbon black surfaces forms ionic and hydrogen bonds w

See how a zinc oxide and calcium carbonate pigment system replaces costly titanium dioxide whil

See how a particulate compound of inorganic pigment and phyllosilicate mineral dyes textiles wi

See how a polyolefin-based coating combines low-emissive pigments with thermoplastic matting ag

See how inorganic pigment-phyllosilicate compounds dye textiles with reduced water and energy u

See how a rotating solar concentrator reactor pyrolyzes methane using focused sunlight to produ

See how surfactant-mediated dispersion of conductive nanoparticles in resin achieves tunable em

See how iron element incorporation on carbon black surfaces reduces interparticle attraction an

See how pyrrole derivatives with sulphur atoms mediate stable carbon allotrope dispersion in el

See how particle-size control of bismuth vanadate pigment achieves visible color change in cook

See how a pH-responsive dye sheet changes color on disinfectant contact, enabling visual confir

See how absorbance ratio control in bisacetoacetarylide pigment dispersion prevents sedimentati

See how bent-shape carbon nanotubes form a direct-contact network on carbon fibers to improve m

See how coating fibers with sp2 carbon-pyrrole adducts improves polar matrix compatibility and

See how vacuum pressure evacuates gas from pores to draw flexible 2D flakes deep into substrate

See how a potassium silicate compound with aluminium hydroxide achieves fire resistance and bio

See how a tourmaline-based composition emits negative ions to create an electromagnetic cloak t

Carbon-pyrrole adduct coatings give polar fibers conductivity while preserving compatibility with polar matrices for stronger composites.

See how matting agent particle diameter control in gloss-adjusting layers creates decorative pa

See how milling paint-saturated alkaline earth metal carbonates restores surface area and enabl

See how an intermediate damper layer with graded thermal expansion coefficient reduces thermome

See how doping VO2 with tungsten or molybdenum lowers the thermochromic transition from 67°C to

See how a copolymer binder coats organic fibers with nano alkaline earth carbonate to prevent s

See how re-milling paint-saturated alkaline earth metal carbonates restores particle size and s

Carbon nanotubes inserted between graphene plates prevent agglomeration, preserve aspect ratio, and enable stable dispersions for conductive films and catalysts.

Co-extraction and fractional back-extraction separate titanium and iron from ilmenite acidolysis liquor, improving pigment precursor purity and acid recovery.

A renewable calcium carbonate filler from biological sources improves carpet backing tensile strength and elongation while reducing mining impact.

Controlled ozone decomposition oxidizes carbon fiber surfaces to improve polymer adhesion without the cost, waste, and fiber damage of electrochemical treatment.

Re-milling paint-saturated alkaline earth carbonates restores usable particle size and surface area for reuse in flooring, concrete, and filter media.

An aqueous hydroxide-salt treatment makes cellulosic material self-extinguishing while avoiding halogen additives and retaining fire resistance after washing.

An anodized Al2O3 base plus inorganic ceramic coating improves non-stick cooking while resisting abrasion, corrosion, and carcinogen release.

Mineral-filled bimodal polyethylene broadens thermoforming windows for refrigerator liners while resisting detergent stress cracking.

Gas-filled polymeric microspheres with embedded silicate improve CMP removal rate while reducing wafer scratching and pad variability.

Binder-coated organic fibers hold nano alkaline earth carbonate on the fiber surface, preventing segregation and improving paper opacity and printability.

Pre-dispersed pigments in glycol and surfactant improve storage stability, spinning-solution compatibility, and uniform PAN fiber coloration.

A 3D TiO2-x/CNT sulfur composite uses chemisorption and porous confinement to suppress polysulfide leaching and stabilize high-loading Li-S electrodes.

A dual-dispersant conductive dispersion lowers slurry viscosity at higher carbon loading, improving electrode processing, drying, and adhesion.

A mixed-oxide pigment enables laser-marked polyamide high-voltage components while preventing orange colorant migration under heat and UV.

An oxide-carbon coating controls SiO disproportionation in silicon composite anodes to improve cycle life, rate performance, and swelling resistance.

A two-stage pyrolysis setup forms carbon seeds first, then grows higher-value carbon products while generating additional hydrogen.

Lignin-based particulate carbon uses hydrothermal carbonization to deliver carbon black-like reinforcement with lower CO2 emissions.

A crosslinked pyrene-cationic copolymer coating captures lithium polysulfide in sulfur-carbon cathodes to preserve capacity and extend Li-sulfur battery life.

Surface-treated alumina coatings improve separator wettability and thermal stability while reducing HF content and AC impedance in Li-ion batteries.

Sized carbon particles in a capacitor carbon layer cut ESR, improve adhesion and conductivity, and help block air ingress without silver.

A dual-carbon-black blend below percolation thresholds delivers antistatic conductivity while preserving stiffness, tensile strength, and processability.

A bimodal hollow silica particle distribution suppresses resin viscosity rise during kneading while preserving strength and fine-space filling.

Carbon nanofibers grown from catalyst-penetrated carbon particles improve battery electrode dispersibility, conductivity, and electrolyte permeability.

Pre-dispersing conductive material and controlling drying temperature reduces electrode agglomeration, lowering resistance and improving battery output and life.

Biomass post-treatment deoxygenates carbonaceous material to match carbon black performance while removing detectable PAHs and lowering emissions.

Recovered tire carbon black is catalytically cleaned, activated, and graphitized at lower temperature to yield stable battery anode graphite.

Heat treatment moves zinc from scrap rubber into the gas phase for oxidation and deposition as zinc oxide while forming usable carbon black.

Supercritical CO2 extraction removes oxy-PAHs and PAHs from carbon black while preserving material properties and avoiding harmful solvents.

Solution-based metalorganic precursors form porous ceramic nanowires with controlled dimensions at lower cost and larger production scale.

Grafted voltage stabilizers on nano-particles improve polyethylene dispersion stability, resist migration, and raise breakdown field strength.

Carbon black with controlled surface area and crystallite size promotes binder nano-fibrillation, raising dry electrode strength and conductivity.

Controlled-surface carbon black lowers slurry viscosity while preserving conductivity and dispersion in lithium-ion battery electrodes.

Self-assembled metal and insulative particles form annular resonators that enable scalable 3D metamaterials with nanometer-scale structures.

Fine treated carbon black in a polymer matrix stabilizes PPTC resistance across temperature cycles by improving filler dispersion and conductive pathways.

Sulfur-assisted low-temperature etching raises carbon black surface area while preserving crystallinity for conductive, stable battery electrode slurries.

Rubber-derived pyrolysis oil is vaporized and burned in a gas black reactor to make carbon black while avoiding feed-line and burner clogging.

Ultrasonication removes insulating ligands so metal oxide nanoparticle ink can form uniform low-temperature thin films on perovskites.

Silane functionalization raises graphene bulk density and flowability, cutting dust and easing incorporation into thermoplastic matrix systems.

Controlled carbon black surface area and crystallite size improve binder nano-fibrillation in dry electrodes while preserving conductivity and strength.

Oxidant pretreatment and controlled heat treatment raise carbon black crystallinity while preserving surface area, conductivity, and liquid uptake.

Controlled oxidation keeps carbon nanotubes individualized at useful concentrations, improving composite adhesion, conductivity, and stability.

Controlling SiO disproportionation and XRD intensity ratio helps silicon composite anodes improve cycle life, rate performance, and swelling.

Hybrid silica-graphenic carbon fillers reinforce elastomers while limiting viscosity and hysteresis penalties and improving elongation.

Controlled carbon black surface area and slurry viscosity improve electrode dispersion, discharge rate, and cycle life in lithium-ion batteries.

Thermal oxidative pyrolysis of renewable and tire-derived feedstocks produces carbon black with conventional-grade properties and lower environmental impact.

Sulfite-assisted thermal treatment forms spherical cobalt ferrite particles with 0.5-2 μm size control using simpler facilities than hydrothermal routes.

In situ polymer-coated silica improves filler compatibility in rubber compounds, enabling faster, more uniform mixing with less wear.

Controlled surface area and DBP ratio help carbon black disperse uniformly, lower slurry viscosity, and maintain conductivity in lithium-ion batteries.

Controlled carbon black surface area and crystallite size maintain conductivity while lowering slurry viscosity in Li-ion electrodes.

Gas-phase sulfur and controlled combustion improve carbon breakdown, producing sulfur-doped nanospheres with more consistent composition.

Sulfite-assisted heating grows cobalt ferrite particles to uniform micron-scale sizes at lower temperature and pressure than conventional routes.

A metal-carbon composite interlayer blocks anode-solid electrolyte reactions, lowering resistance and improving charge-discharge efficiency.

Controlled wet granulation tunes carbon black particle size to cut pulverization while improving bulk density and dispersibility.

A hollow core with spaced hard layers and a soft outer coating contains silicon expansion, reducing fracture and capacity loss in Li-ion anodes.

Thermoforming followed by thermal aging crosslinks polymer-grafted particles, enabling robust 3D shapes with better modulus and hardness.