Temporary humidification or heat treatment softens hard gum before extrusion or cutting, reducing equipment strain while keeping product consistency.
Water-insoluble polysaccharides and bamboo fibers replace mineral fillers in gum bases while preserving viscosity, tack control, and compliance.
Plant cell fermentation replaces rainforest harvesting to produce consistent polyisoprene and triterpenoid gum base at commercial scale.
A friable sugar alcohol coating gives pellet gum a soft core, crisp bite, rapid mouth cooling, and distinct flavor transitions.
See how pectin with sugar or polyols plasticizes a natural gum base, reducing excessive hardness and improving chewability.
Curvilinear uncoated gum pellets use low-hygroscopic dusting to resist moisture and sticking while preserving a soft initial chew.
Natural-sweetener gum helps curb sweet cravings while supporting metabolism and energy.
Non-cariogenic maltitol particles preserve chewing gum crispness and flavor while shortening the hard sugar-coating process.
Enzymatically modified potato starch replaces gelatin in flavor encapsulation, maintaining release performance while avoiding animal-derived ingredients.
Chewing gum with spilanthol stimulates saliva production to deliver a refreshing mouth-moistening effect.
Sweetening substances act as intermediary antioxidants to prevent oxidative degradation of monocyclic terpenes, masking herbaceous notes.
Water-soluble color compounds leach from chewing gum to provide a visual indication of mastication duration.
Granule-phase center filling prevents ingredient sinking during coating, ensuring superior mouth feel.
Segmenting extruder output into parallel substreams enables continuous color variety without transition scrap.
An enclosed chamber directs powdered dusting agents onto comestible surfaces via controlled airflow.
Encapsulation of rebaudioside A controls release kinetics to reduce bitterness perception during mastication.
A gelatin-free encapsulated flavour uses a native starch, xanthan gum, and konjac composite to replicate gelling properties.
A solid homogeneous blend of polyvinyl acetate and vinyl acetate-vinyl laurate copolymer enables metered addition during chewing gum base production.
Particulate polyvinyl acetate copolymer compositions replace difficult viscoelastic blocks in chewing gum bases.
Dried fruit powders replace polyols as chewing gum bulking agents, eliminating gastrointestinal discomfort while maintaining sweetness.
Multi-block copolymers form hydrogen bond crosslinks to increase elasticity, reducing adhesion to environmental surfaces for easier removal.
Melting polyolefin thermoplastic elastomers blends gum bases, reducing grinding energy and mixing time.
Substituted polysaccharides replace petroleum elastomers in chewing gum bases to deliver consistent texture.
Liquid polyolefin elastomers replace solid grinding to cut mixing energy and time while maintaining texture.
Spherical chewing gum granules coated with a free-flowing agent reduce sticking and enhance flow properties during compressed product manufacturing.
A crystalline carrier matrix disperses active ingredients to enhance wetting and dissolution kinetics in aqueous environments.
A glycerol-free sweetener system provides plasticity to chewing gum cores without migrating into the coating.
A cold-applied coating method encases active ingredients in orally soluble gummy candy cores using a water-based solution at room temperature.
Plasticized highly substituted starch carboxylates replace petroleum elastomers in chewing gum bases.
Replacing petroleum polymers with high molecular weight polyfarnesene ensures consistent gum texture while reducing reliance on non-renewable resources.
Replacing petroleum elastomers with a cross-linked gelatin matrix and polyol bulking agents reduces environmental pollution while maintaining chewability.
Saponins reduce viscosity without adding water, lowering energy costs and preventing chamber adhesion during spray drying.
Spraying emulsified flavor onto a dry blend of hydrocolloid and unhydrolysed pea protein under high shear creates gelatin-free encapsulated particles.
Optimized sorbitol particle size distribution reduces mixing time while maintaining attack hardness and aromatic intensity in sugar-free chewing gum.
Gel-based nutraceutical matrix retains immune modulator activity while resisting microbial growth during pasteurization.
Aqueous polyvinyl acetate and alcohol dispersions coat water-soluble cores to enable continuous processing without organic solvents.
Integrating a cooling screw into the extruder maintains gum base temperature below 90 degrees Celsius, eliminating separate heat exchange systems.
A conveying device buffers strip products in a storage unit, decoupling production from downstream processing faults.
Crystal agglomerates composed of polyols replace talc to eliminate contamination risks while maintaining flow characteristics and organoleptic qualities.
Block copolymers form microcrystalline domains that resist flow into surface crevices, solving adhesion and removability issues in chewing gum.
A hydrophilic gum base incorporates hydrolysable units into elastomers to reduce stickiness and accelerate degradation of chewing gum litter.
A chewing gum mass holds an alcohol liquid filling inside cavities protected by a film-forming substance.
Multi-layered sugar-free chewing gum segments flavors across distinct zones to reduce dosage and prevent bitterness from incompatible combinations.
A molten chewing gum composition uses controlled viscosity ratios to produce soft, intermediate, or crisp textures from a single processing method.
Apply colored carbohydrate particles to extruded chewing gum cores before transparent coating, reducing equipment complexity and material usage.
Replacing maltitol with palatinose cuts core conditioning time by 95 percent, enabling continuous manufacturing.
Integrated sizing rollers compress gum mass into a continuous sheet while imprinting surface contours, reducing shear force on sensitive ingredients.