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.