Reinforcing Agents Addition TRIZ Cases

See how abaca and eucalyptus fiber blends with controlled molding parameters achieve premium to

See how reslushing once-dried non-wood fibers and forming differential-density zones overcome m

See how a composite of kraft pulp, bamboo pulp, and natural rubber latex resolves the contradic

See how layered fiber composition and intermediary bonding agents enable high non-wood fiber co

See how ultra-high molecular weight glyoxalated polymer complexes replace PAE resins to achieve

See how jet/wire velocity and creping geometry adjustments enable non-wood fibers to achieve hi

See how bamboo and abaca fibers are layered with wood fibers to achieve formation index below 6

See how multi-layer fiber placement and density control resolve drainage and roll firmness issu

See how bamboo and abaca fibers combined with differential densities and layering resolve susta

See how glyoxalated polyvinylamide and polyacrylamide replace PAE resins to achieve wet strengt

See how hydrogen-bonded cellulosic fibers and foaming surfactant create ultra-low density tissu

See how blending cross-linked and uncross-linked fibers in through-air dried tissue resolves th

See how dual dry and wet strength chemistry treatments enable cellulose-based containers to ret

See how a three-layer tissue structure concentrates surfactants in the interior layer to mainta

Interior-layer surfactants in through-air-dried tissue improve softness and strength while preserving surface profile and cleaning ability.

A recessed-and-projected molding die forms a longer communication passage in laminated pulp, widening Helmholtz-based sound absorption.

Controlled in situ glyoxalation of high-MW gPAM improves paper drainage while maintaining dry strength and retention in difficult furnishes.

Low-energy refining with softwood pulp, cationic polymer, and cellulose nanofilaments raises wet strength while preserving softness and absorbency.

Polymer-in-metal hydroxide colloids strengthen paper without excessive refining or press loads, helping cut cost and avoid density-related tradeoffs.

Adding glyoxalated polyvinylamide after the last high-shear step preserves dry strength while reducing additive use and cost.

Combining zirconium or titanium chelates with cationic polymers boosts paper strength while preserving softness and dewatering under harsh papermaking conditions.

A bimodal cationic GPAM composition cuts aqueous carrier volume for transport while preserving paper wet and dry strength.

Agricultural-biomass MFC reaches higher solids without hornification, staying redispersible and preserving paper strength with lower energy use.

Using binders with different exothermic peak temperatures, this fiber sheet improves corrugation moldability and processability while reducing peeling and sticking.

Acrylic acid-acrylamide copolymers keep long carbon fibers uniformly dispersed in water, improving carbon paper stability and tensile strength.

Inverse emulsion polymerization enables high-molecular-weight paper polymers with lower viscosity, improving dry strength and drainage while cutting water and energy use.

Poor microfibrillated cellulose retention and self-association are addressed by multilayer curtain coating on a low-dry-content substrate during dewatering.

See how a high-synthetic-fiber base and cellulosic top layer improve machine runnability, printability, and dimensional stability.

Combining two amphoteric (meth)acrylamide polymers strengthens paper in high-conductivity systems while limiting cloudiness and insoluble substances.

Thermal bonding of cellulosic fibers and bicomponent binders creates nonwoven paper with high strength, tear resistance, and water resistance.

Adding GPAM just before the headbox concentrates polymer at floc junctions, increasing paper dry strength without quenching optical brighteners.

A starch-grafted (meth)acrylamide composition balances 22–35 wt% concentration with workable viscosity while improving pulp fixation and paper strength.

Controlled pH and phosphoric acid groups help ultrafine cellulose fiber sheets resist heat-and-humidity aging while limiting yellowness.

This case uses cPAM and glyoxalated PAM resins to decouple water drainage from strength performance in cellulosic papermaking.

Sequential polymerization creates a liquid anionic polymer that strengthens paper, preserves drainage, and reduces powder handling.

A pH-adjusted crosslinked polymer combines paper strength gains with improved ash retention and maintained dewatering performance.

Wet-laid cellulosic fibers and bicomponent binders are thermally bonded for durable, tear-resistant paper with less reliance on HDPE.

Pairing high-molecular-weight GPAM with CMC addresses weak dry-strength performance in high-pH, PCC-filled paper stock.

Symmetric cross-linkers and staged epichlorohydrin addition improve wet tensile development and storage stability while reducing by-products.

Liquid gradient polymers improve paper dry strength without harming drainage.

Biocides prevent starch degradation while ionic polymers fixate material to fibers, reducing chemical oxygen demand in wastewater.

Segmenting host and guest polymers prevents phase separation, maintaining homogeneity while boosting dry strength.

Combining cationic vinylamine and amphoteric polymers increases dry strength while maintaining drainage rates in paper production.

Mixing fibers with low grindability resin powder creates a dry sheet that resists breaking while maintaining uniform strength distribution.

Patterned molding members with discrete knuckles and curved angles increase tear strength while minimizing tensile strength in fibrous structure plies.

Hemicellulose-rich fibers improve resin fixation efficiency and mechanical resistance while reducing residual unfixed resin in banknote production.

Michael addition adducts modify polyvinylamine backbones to improve dry strength while maintaining molecular integrity during aqueous processing.

Coating filler particles with natural gums prevents additive adsorption, resolving the trade-off between high filler content and wet web strength.

A pulp molding process uses composite fiber materials to form paper-shaped articles with specific cavity dimensions.

Stratified Yankee dryer sheets apply wet strength resins and specific fiber coarseness to lower lint levels while maintaining dry strength.

Optimized cationic-anionic polymer ratios improve dry strength while accelerating dewatering rates in paper production.

A method using anionic agents to create stable filler flocs with controlled particle size distribution.

Segmenting foreshortening mechanisms allows patterned drying fabrics to achieve superior elongation ratios while maintaining structural integrity.

Fine inorganic fillers mixed with high-hydrolysis PVOH create bright white fibers without pre-drying steps.

Replacing epichlorohydrin with diisocyanates eliminates chlorinated by-products and mold susceptibility while maintaining permanent wet strength.

Crosslinking GPAM with amine containing polymers resolves the contradiction between dry strength and drainage retention while maintaining flexibility.

A glyoxalated polyvinylamine blend boosts paper wet and dry strength through crosslinking.

Crimped cellulose ester staple fibers co-refined with cellulose resolve web breaks and operational interruptions while improving water absorbency.

Fibrous elements incorporate a wetting agent to achieve hydrophilic properties.

A dry accumulating method forms a fiber web on a transport belt before applying water and heating to bind fibers with starch.

A triazine-based polymer flocculant forms coarse flocks with high affinity for sludge particles.

Adding permanent wet strength resin alongside high consistency debonder maintains dry strength while achieving superior wet to dry tensile ratios.

Turbidity measurement replaces viscosity sensing to stop glyoxylation precisely, preventing gel formation while drying the product for stable storage.

A fibrous body manufacturing method deposits mixed raw materials containing a binder to bond fibers together.

Sequential coagulant and flocculant treatment with shearing produces shear-resistant filler flocs, maintaining sheet strength at high filler content.