Milk Preparation TRIZ Cases

Forward osmosis concentrates dairy products using a semi-permeable membrane and draw solution, avoiding thermal degradation and reducing energy consumption.

Segmented milk flow combines low-temperature microfiltration with high-temperature thermal treatment to reduce bacterial content.

A drying apparatus processes homogenous insect pulp into protein meal using fluidized bed technology.

Alkaline extraction followed by acidification separates proteins from tannins, yielding a light-colored isolate with high water retention.

Sequential ion exchange and fractional crystallization remove impurities causing residual bitterness, enabling highly purified sweeteners for food applications.

A siamenoside I formulation combines flavor modifying compounds to enhance sweetness and mask bitter or sour tastes.

Continuous pH monitoring with alkaline salts optimizes fermentation time, reducing contamination risk while increasing nisin concentration.

Cross-linked casein and whey proteins form microparticles that reduce oxidation rates without Maillard reaction products.

A green extraction process recovers soluble fiber and polyphenols from dried cacao pod husks using enzymatic treatments and alkaline solubilization.

High-pressure homogenization reduces fat-soluble dye droplets below 100 nm, resolving low luminosity and yield in water-containing food emulsions.

Applying electrostatic fields during low-temperature spray drying reduces surface fat by 8% and prevents thermal degradation of milk powder.

Combining human milk oligosaccharides, milk fat globule membrane, and choline promotes oligodendrocyte precursor cell proliferation and maturation.

A bovine beta-casein peptide sequence induces gastrointestinal mucin expression and secretion to strengthen the intestinal mucosal barrier.

Weak cationic resins and electrodialysis process small ruminant whey to remove minerals while preserving protein content.

Hydrated emulsifier blends and gellan gum stabilize aerated milk foam for refrigerated beverage consumption without utensils.

GlcK gene mutations in Streptococcus thermophilus enhance natural sweetness and texture while maintaining strain stability.

Splitting milk into retentate and permeate streams allows targeted lactase hydrolysis, reducing retention time and minimizing sweetness in the final product.

Fermenting yogurt with live lactic acid bacteria followed by heat inactivation extends shelf life to six months at room temperature without refrigeration.

Formulation reduces obesity and insulin resistance risk in infants born to non-obese mothers by lowering protein burden on immature organs.

A sweetness enhancer composition improves perceived sweetness in low-calorie products.

A multi-coating layer of protein, polysaccharide, and edible oil protects lactic acid bacteria from moisture and gastric acid.

Membrane filtration combines whey and casein to resolve taste and stability trade-offs in protein concentrates.

A composite biscuit filling uses dry starch to maintain low water activity and preserve live lactic cultures.

Removing protein prevents browning reactions during high temperature processing while maintaining desirable foam texture and stability.

Lactic acid oligomers undergo spontaneous hydrolysis to control acidification rates, avoiding pH gradients and texture defects from direct chemical addition.

Acid-gellable whey protein aggregates form a self-supporting gel matrix with acidified dairy to create high-protein snack bars.

Granulated pea protein powder replaces animal proteins while maintaining food texture through specific solubility and wettability.

Treating milk proteins with a protein deamidating enzyme prevents starch retrogradation deterioration during storage and freeze-thawing.

High-pressure processing prevents protein coagulation in spoonable smoothies, maintaining fibrous texture without chalkiness.

Thermal denaturation prevents acidic flocculation, eliminating stabilizer use.

Dual amylases with distinct temperature optima break down starch during cooking to enhance rice texture and looseness.

High casein protein binders provide chewy textures in snack bars, avoiding the cooked flavors and discoloration caused by high heat processing.

Vacuum deaeration removes air from milk slurry, reducing energy consumption and storage needs during continuous recombination.

Pulsed electric field and cold plasma treatments modify dairy protein structure, reducing viscosity and energy consumption during spray drying.

Enzymatic hydrolysis of whole grains increases dietary fiber content while maintaining organoleptic properties for ready-to-drink beverages.

Milk-derived oligosaccharides inhibit Clostridium perfringens growth, addressing inadequate infection control in livestock.

Microporous membrane filtration concentrates secretory IgA from milk fractions, resolving low yield issues in industrial-scale production.

Combining specific Lactococcus strains resolves the contradiction between predictable fermentation and diverse flavor generation without artificial additives.

Strains with biphasic acidification kinetics and CRISPR loci reduce fermentation time while maintaining product stability against bacteriophage infections.

Using ground cocoa shells with a D90 value under 25 µm reduces bitter aftertaste while enhancing water-binding properties in acidified dairy products.

Covalent lactase conjugation to hydrophobic polymer supports via a hydrophilic spacer layer retains enzymatic activity.

Precise degree of hydrolysis reduces pea protein isolate viscosity while maintaining solubility to eliminate sandy mouthfeel in beverages.