Inks TRIZ Cases

Chaotic particle motion prevents pigment settling and reduces material waste by maintaining uniform dispersion without chemical dispersants.

Tungsten bronze ink absorbs near-IR laser energy to heat color change agents, resolving low absorbance issues in high-speed packaging.

Molecular organic reactive inks reduce metal salts to conductive features via photoinitiation, eliminating complex post-printing sintering steps.

Self-dispersed pigment with polyurethane polymer prevents nozzle clogging by eliminating external dispersants and maintaining viscosity stability.

Flexographic printing and electroless plating create orthogonal conductive patterns on flexible polarizer films for capacitive touch sensors.

A waterless lithographic printing plate precursor uses a silicone rubber ink repellent layer with specific surface tension to repel UV ink.

Specific solvent composition prevents hollow resin particle collapse during heating, maintaining light scattering for image whiteness.

A radiation curable ink jet composition uses a high acid value dispersant to stabilize hindered amine compounds.

Amphoteric block copolymers stabilize non-polar silicone oils in aqueous formulations, preventing phase separation while maintaining surfactant effectiveness.

Specific mass ratios of acetylene glycol surfactant and lactam suppress recording media curling while maintaining discharge stability.

Ionizable coating agents enable pigment self-dispersion, reducing viscosity and expanding formulation latitude.

Transition metal particles in the ink absorb light energy to melt polymer powder, enabling complex electrical configurations without expensive laser systems.

Intaglio ink composition uses distinct particle sizes to create multi-characteristic security features.

Sequential ink ejection with varying pigment ratios and viscosity levels prevents image offset during high-speed printing.

Resin-dispersed chromatic pigments with smaller particle diameters prevent self-dispersible black pigment settling, maintaining stable jetting performance.

A cleaning liquid with controlled conductivity and high HLB surfactant stabilizes inkjet components.

Water-compatible polymer ink enables flexographic printing of microscopic conductive lines.

Water-soluble urethane resin adsorbs acetylene glycol surfactants in aqueous ink jet compositions to maintain stable formulations.

Resin particles take over 500 minutes to melt at 40°C with surfactant, preventing nozzle clogging and ensuring stable continuous ejection.

Controlled silicone agent concentrations balance dot deposition and hardening timing to prevent beading on coated papers.

Ammonium ions lower local pH near suspended heaters, reducing alkaline corrosion and extending thermal inkjet printhead lifetime.

Limited solubility surfactants resolve the contradiction between composition stability and optical density by controlling ink penetration.

A coating composition with terminal unsaturation and silylated groups cures via free radical reactions to form strong substrate bonds.

An ink formulation with controlled viscosity and surface tension balances permeation speed and pigment retention.

Dye dispersed in elastic putty creates precise shape-specific markings on activator substrates without staining unintended surfaces.

Fluorinated silane modifies metal powder surfaces in inkjet compositions to enhance discharge and storage stability.

Organic solvent ink formulation with plasticizers extends decap time while maintaining short dry times and substrate adhesion.

Three segmented electrodes switch voltage polarity to release adhered colloidal particles from the opposite electrode, preventing kogation and anodization.

Edible near-infrared dyes printed via bioinkjet create invisible QR taggants that secure individual doses against counterfeiting.

Specific organic solvent ratios allow the paste to fill complex bezel-pattern recesses without causing disconnections or short circuits.

An electron beam curable inkjet composition uses specific polymerizable compounds and unreactive resins to achieve strong substrate adhesion.

A photobase generator cures double bond compounds via Michael addition to eliminate residual monomers.

Self-dispersing pigment and betaine in aqueous ink suppress air bubbles and foreign matter, preventing clogging while maintaining image quality.

Inkjet ink formulation with photoinhibitors prevents unwanted polymerization during storage.

Sintering metal nano-ink inside a recessed adhesive prevents particle detachment and cracking under thermal expansion.

Dual silicone layers resolve the trade-off between ink repellency and image reproducibility by assigning specific mechanical properties to each zone.

Ink formulation with controlled surface tension above 26 mN/m improves film leveling and spreading during high-speed printing operations.

Redispersible aqueous polyurethane dispersion inkjet ink reduces migration and odour while maintaining low viscosity for reliable printhead operation.

Replacing carbon black with cyan, magenta, and yellow pigments eliminates UV absorption issues that hinder curing performance.

A solvent-free curable composition uses hydrophobic monomers to stabilize quantum dots for ink-jetting.

A water-based ink composition uses borneol and specific black pigment particle sizes to enhance visual output.

Dynamic attachment order reverses between pass directions to resolve permeation unevenness while preserving high recording speed.

Monofunctional acrylate and N-vinyl amide ink-jet inks reduce film shrinkage while maintaining substrate flexibility during UV curing.

A quantum dot ink composition employs a mixed solvent system with fluorinated alcohol to resolve dispersion stability and film flatness trade-offs.

A room temperature printing process creates stable, conductive inorganic thin layers using redox-reactive deposition.

Water-based ink suspension prevents nozzle clogging and reduces volatile organic compound emissions by replacing quick-drying solvents.

A non-Newtonian photo-curable ink composition uses shear-thinning metal oxide particles to enable efficient jetting and rapid curing on diverse substrates.

Aminoplast resin matting agents enable digital printing of radiation-curable coatings without printhead clogging.

Zinc tin oxide electron transport composition improves luminous efficiency and lifespan by optimizing charge injection balance and surface stability.