Inks TRIZ Cases

Butenediol-vinyl alcohol copolymer stabilizes resin particles via core-shell formation, preventing flocculation and viscosity increase during moisture loss.

A near-infrared absorbing colorant ink formulation uses a specific dispersant and polymerizable monomer to achieve excellent image clarity.

Viscosity-controlled ink composition enables precise projection through small diameter nozzles.

A metallic nanoparticle dispersion uses a specific solvent medium to stabilize particles without polymeric dispersants.

Inkjet printing deposits acid-etch resist onto a carrier substrate, resolving wax softening and registration issues in traditional mold texturization.

Ink jet composition balances weather durability and recording quality by adjusting pigment particle size to 100-400 nm and using a specific solvent mixture.

A microfluidic delivery cartridge uses thermal ink-jet technology to atomize fluid compositions into fine droplets for airborne dispersion.

Crosslinked polymer particles and controlled organic solvents improve substrate adhesion on low-liquid absorbing media.

Ink composition uses acetal cosolvents to improve drying speed and reduce fuse energy, resolving high HS&E risks of traditional solvents.

Cationic curing of silver nanoplatelet inks improves mechanical resistance for high-speed value document printing.

Precise parameter control during co-cyclization resolves contradictions in chroma and particle diameter for inkjet applications.

Controlling dynamic surface tension difference in inkjet ink prevents excessive spreading and ensures consistent line widths on coated papers.

Controlled seeded emulsion polymerization forms stable latex particles with narrow size distributions.

An inkjet ink formulation uses specific monomers to create a flexible film.

Core-shell particles improve light resistance and storage stability while maintaining high image density.

A two-layer ink jet recording method uses resin particles and controlled organic solvents to form stable image layers on non-absorbent media.

Organic emission layer material prevents inkjet head clogging and crosslinking damage.

A water-soluble polyamic acid binder composition enhances adhesion and tensile strength in rechargeable battery electrodes.

Integrated touch sensors beneath paper sheets capture traditional pen markings for digital storage, resolving the tactile feedback gap in stylus-based devices.

A solar cell electrode paste composition uses a specific mixture of conductive powders to enhance the aspect ratio of printed electrodes.

A photocurable composition forms a protective film via ink-jet printing and UV curing.

Silane crosslinking resolves the contradiction between dispersion stability and abrasion resistance in colored resin particle dispersions.

Evaporative curing of plasticized resin paste forms conductive traces at room temperature, eliminating high-temperature firing steps.

A continuous inkjet ink composition uses a dimethyl carbonate and acetone solvent mixture to dissolve conductive salts.

A screen printable polymer interlayer composition cures via UV light to enable high optical quality printing on laminated glazing substrates.

Oil-based inkjet ink set with controlled specific gravity prevents pigment aggregation and reduces satellite contamination during multi-color printing.

Adjusting white pigment particle size and ink viscosity suppresses settling, preventing nozzle clogging and image quality loss.

An aqueous pretreatment liquid uses a high-saponification ethylene-vinyl alcohol copolymer resin and a high-HLB surfactant to enhance wet spreadability.

Inkjet deposition of a photocurable composition eliminates chemical developing waste while achieving high formation accuracy for fine resist patterns.

Composite pigment particles with controlled size distribution enhance rubbing resistance on coated papers while maintaining optical density on plain substrates.

Metal detectable ink printed on sanitizing wipe substrates enables X-ray and magnetic detection of lost articles in manufacturing streams.

Reduced indium tin oxide absorbs near-infrared radiation to drive colour change reactions, resolving low fluence contrast limits.

UV-activated dyes and thermochromic materials on welding apparel change color to indicate radiation presence.

Evaporative diluent reduces viscosity for precise inkjet dispensing, then evaporates to restore thermal stability and etch resistance.

Nanoparticulate colloidal silica in inkjet inks absorbs near-infrared radiation for thermal energy conversion.

Resin encapsulates aluminium-based pigments in liquid carriers, preserving color-shifting properties during printing.

An ink formulation uses a specific polymer to resist thermal effects during high-speed drying, preventing pigment aggregation and maintaining image density.

A copper phthalocyanine pigment composition containing rosin, sulfonic acid, and an aliphatic amine ensures low calcium content.

Acid-valued fluoropolymer processing additive inhibits gel defects and die build-up while shortening melt fracture disappearance time.

Aqueous energy curable inkjet inks combine non-photopolymerizable resin with water-soluble photopolymerizable monomers.

A microcapsule color material uses a leuco dye and developer combined with specific alcohol compounds to control thermal discoloration.

Polyamine structures bind multivalent metal ions to prevent pigment aggregation and ensure reliable inkjet ejection performance.

Inkjet printing deposits alkali removable resist onto silicon wafers, reducing mechanical stress during solar cell manufacturing.

Specific compound structures in aqueous black ink resolve contradictions between storage stability and image fastness.

A polyester dispersant stabilizes mixed metal oxide pigments in non-aqueous media for digital printing.

Poly vinyl pyrrolidone increases ink viscosity, resolving low viscosity issues while maintaining dispersion stability.

UV hardening epoxy resin ink cures on glass substrates to deliver strong adhesive bonds and durable scratch resistance.

Phosphonic acid polymer dispersants prevent titanium oxide aggregation and viscosity spikes, ensuring consistent inkjet discharge performance.

Lithium-sodium cation mixtures extend decap time without compromising image resolution or stability.