Chewing Gum TRIZ Cases

Amorphous sorbitol bulk material prevents brittleness and stickiness by eliminating crystallization during mixing and storage.

Enzymatic hydrolysis creates porous starch that provides bulk without causing dental caries or gastrointestinal disturbances.

Two-layer xylitol coatings with impurities slow crystallization to prevent uneven coloration and bumpy textures on chewing gum surfaces.

Optimized inlet temperature and dew point in spray drying retain volatile compounds, preventing flavor loss during high-speed production.

A viscoelastic mud blends elastomer with liquid rubber to achieve specific mechanical properties.

Encapsulated hydrophilic precursors in a barrier material resolve the contradiction between shelf life stability and post-consumption degradability.

Injecting supercritical carbon dioxide into the mixing apparatus expands the gum composition, reducing calorie content while maintaining cud size and texture.

Polyvinyl acetate and fatty acid salt encapsulation delays food-grade acid release, solving the trade-off between prolonged sourness and gum texture hardness.

Sealed humidity barrier packaging prevents pre-degradation of biodegradable chewing gum polymers by controlling moisture vapor transmission.

Cross-linked hydrocolloids and coupling agents reduce strong adhesion to surfaces while enhancing hydrophilic flavor release from the hydrophobic matrix.

Direct particulate application eliminates syrup complexity while sustaining flavor release through controlled dissolution.

Substituting maltitol with isomaltulose in chewing gum cores reduces machinery stickiness by 90 percent and lowers thermal load.

A chewing gum formulation combines caffeine and L-theanine for sublingual absorption into the bloodstream.

Transglucosidase enzymes create glucosylated terpene glycosides with alpha-1,6 bonds to reduce bitterness and aftertaste.

Offset rollers reduce thickness in one pass, eliminating high shear extruders that damage sensitive ingredients.