Non-Macromolecular Organic Addition TRIZ Cases

See how ultra-high molecular weight glyoxalated polyvinylamide and anionic polyacrylamide repla

See how a polyhydric alcohol and phosphate ester composition forms gel on paper to retain moist

See how chemical solution impregnation with moisturizing, oily, and vegetable powder components

See how high-NBKP fiber ratio and controlled surface curvature resolve the softness-strength tr

See how high NBKP content and controlled surface curvature resolve the tissue strength-versus-a

See how controlled basis weight, bulk, and moisture content enable moisturizing tissue to resis

See how controlled oily component addition and optimized water content achieve softness in high

See how 3-4 ply toilet paper with 80% softwood pulp and cationic softener resolves the contradi

See how controlled polyol and moisture content (8-15%, 18-30%) with optimized tensile strength

By tuning 2-ply basis weight and moisturizer content, this tissue structure stays soft yet resists bending during storage and pop-up dispensing.

See how controlled oily component and water content achieve high-grade tissue softness and smoo

See how a controlled glycerin and 1,3-propanediol ratio in tissue paper achieves moist and smoo

See how a cationic softener and high-MW polyhydroxy compound reduce tissue friction below 200g

See how a cationic softening compound with high molecular weight polyhydroxy compound reduces t

Covalent fiber crosslinking with low-molecular agents boosts wet and dry strength while preserving biodegradability in paper and non-woven webs.

Controlled chemical loading in two-ply tissue preserves softness and moistness while reducing stickiness and improving tear strength.

Controlled chemical loading and sheet thickness let two-ply moisturizing tissue stay soft and smooth while reducing stickiness and tearing.

Small-molecule fiber crosslinkers boost dry and wet tensile strength, even at extreme pH, while preserving biodegradable paper and non-woven webs.

Recovered foam is returned from the forming wire to the pulper to limit foam migration, maintain fiber distribution, and cut surfactant use.

An ionic liquid and protic antisolvent swell cellulose fibers into stable, low-viscosity dispersions without functionalization or structural damage.

Cross-linking ligno-cellulosic pulp fibers before low-temperature drying improves moisture resistance, strength, and recyclability for thermoforming.

A starch additive modified with chloroacetamide and glyoxal boosts paper wet and dry strength while reducing reliance on petroleum-based chemicals.