Patent classifications
A23J1/20
METHOD OF PRODUCING DENSE WHEY PROTEIN NANOGELS, THE RESULTING WHEY PROTEIN NANOGELS OR NANOGEL COMPOSITIONS, AND FOOD PRODUCTS CONTAINING SUCH WHEY PROTEIN NANOGELS OR NANOGEL COMPOSITIONS
The present invention pertains to production of special whey protein nanogels by denaturation of whey protein and furthermore to the resulting whey protein nanogels, and their use in food products, such as beverages. The present whey protein nanogels contribute with an extraordinarily low viscosity contribution when used in high concentration in beverage and liquid products which is a clear indication of their uniqueness.
Hyperproteic snack-type food product with high biological value (hbv) for patients undergoing haemodialysis
The present snack-type food product with high hypoproteic content comprises proteins of high biological value (HBV), in which the principal macronutrients are protein, sugars, carbohydrates and fats. This snack-type food product was specifically developed for patients undergoing haemodialysis treatment. The snack-type food product has sensory characteristics that allow it to achieve better acceptance in comparison with other products available on the market.
Hyperproteic snack-type food product with high biological value (hbv) for patients undergoing haemodialysis
The present snack-type food product with high hypoproteic content comprises proteins of high biological value (HBV), in which the principal macronutrients are protein, sugars, carbohydrates and fats. This snack-type food product was specifically developed for patients undergoing haemodialysis treatment. The snack-type food product has sensory characteristics that allow it to achieve better acceptance in comparison with other products available on the market.
PROCESS FOR TREATING SWEET WHEY SUCH AS TO OBTAIN A PROTEIN MATERIAL SUITABLE FOR HYPOALLERGENIC INFANT FORMULAE
The invention concerns a process for the treatment of a sweet whey material containing cGMP (caseinoGlycoMacroPeptide), said process comprising the following steps: —Decationising the sweet whey material so as to obtain sweet whey material having a pH value of 1 to 4.5; —Treating said sweet whey in a fluidized bed reactor comprising a specific volume of an anionic resin, at a temperature between 10 and 18° C., wherein said sweet whey contacts said resin for a sufficient amount of time so that the resin absorbs between 52% and 58% of the cGMP present in the sweet whey; and—Recovering a protein material. Advantageously, the protein material is suitable for hypoallergenic infant formulae.
PURIFIED NON-DAIRY VEGETABLE PROTEIN
The invention pertains to non-dairy proteins and nutritional compositions comprising non-dairy protein suitable for infant nutrition and a method of preparing a nutritional composition for infants or young children comprising non-dairy protein.
PURIFIED NON-DAIRY VEGETABLE PROTEIN
The invention pertains to non-dairy proteins and nutritional compositions comprising non-dairy protein suitable for infant nutrition and a method of preparing a nutritional composition for infants or young children comprising non-dairy protein.
LIPOSOMES AND METHODS OF MAKING THE SAME
Milk fat globule membrane (MFGM) phospholipid compositions, methods of preparing and using the MFGM phospholipid compositions, liposomes comprising the MFGM phospholipid compositions, and methods of preparing and using the liposomes comprising the MFGM phospholipid compositions. In various examples, a MFGM phospholipid composition is formed by sequential supercritical carbon dioxide (SC—CO.sub.2) extraction of a milk product and extraction of the remaining milk product with a polar compound-modified SC—CO.sub.2 extraction, where the extract is the MFGM. In various examples, the MFGM is used to prepare liposomes. In various examples, the liposomes are prepared by expansion of a supercritical solution comprising the MFGM composition. In various examples, the liposomes are used to administer a cargo, such as, for example, hydrophilic compound(s), hydrophobic compound(s), amphiphilic compound(s), or the like, any one or all of which may be therapeutic agent(s), nutrient(s), bioagent(s), or the like, or any combination thereof to a subject.
Starch-free baked foods and methods of making
Starch-free baked comestible goods and aqueous slurries (batters) for preparation of starch-free baked comestible goods include a combination of three different protein components that are protein concentrates or protein isolates, wherein the protein components differ by solubility in water and/or particle size when suspended in an aqueous medium. The combination of three protein components, particularly in certain weight ratios, enables the preparation of starch-free baked comestible goods including doughnuts, muffins, cakes, and bars as well as other commonly recognized desirable comestible formats. The starch-free baked comestible goods have an improved texture and extended shelf-life as compared to previously developed starch-free baked comestible goods.
METHODS OF DECREASING MUSCLE ATROPHY AND/OR PROMOTING MUSCLE REGENERATION
Methods of decreasing muscle atrophy and/or promoting muscle regeneration in a subject at risk of muscle atrophy comprise orally administering a nutritional composition comprising at least one of protein, fat and carbohydrate, and bovine milk-isolated exosomes comprising intact exosomes. In specific embodiments, the subject suffers from malnutrition, acquired immune deficiency syndrome (AIDS), cancer, diabetes, chronic obstructive pulmonary disease (COPD), amyotrophic lateral sclerosis (ALS), non-alcoholic fatty liver disease (NAFLD), or a burn injury, or has undergone clinical corticosteroid treatment.
Casein Micelle with Composition and Structural Features Simulating Human Milk and Preparation Method thereof
The present disclosure discloses a casein micelle with composition and structural features simulating human milk and a preparation method thereof. The method includes the following steps: adding a citrate ion, a calcium ion, and a phosphate ion to a solution of compound casein to obtain a mixed solution; and then adjusting the pH of the mixed solution to 6.7-7.4, and achieving a constant volume with water to obtain a solution of the casein micelle simulating human milk. Wherein β-casein, κ-casein, and α.sub.s1-casein have a mass proportion of 65-71%, 17-23%, and 9-15% in the compound casein respectively. In the solution of the casein micelle simulating human milk, the concentrations of compound casein, citrate ion, calcium ion and phosphate ion were 0.3-0.6%, 1.5-4.2 mM, 4.5-10.8 mM, and 1.1-4.5 mM, respectively. The casein micelle simulating human milk of the present disclosure is similar to human milk casein micelle, and has low allergenicity.