788results about "Food ingredient as encapsulating agent" patented technology

A seamless capsule includes a core and a shell, wherein the core includes at least one polyunsaturated fatty acid, and at least one flavouring component, the process for manufacturing the capsule and products containing the capsule are also disclosed.

Liquid activated infusion packet(s) / system, promoting hydration, containing active and / or inactive ingredients and / or a support member(s). Infusion Packet(s) / System is one or more individual compartments, and / or group(s), whereby the enveloping material(s) may be totally or partially dissolvable, edible, transparent, opaque, decorated, etc. Further, including of one or more: color(s), flavor(s), aroma(s), pharmaceutical(s), nutraceutical(s), dietary supplement(s), enzyme(s), pre / pro-biotic(s), amino-acid(s), soluble-fiber(s), diagnostic agent(s) etc. regardless of form, + / - effervescence, + / - uniform / controlled-release encapsulations into liquid for humans and / or animals. Enveloping material may be in whole and / or in combination; non-synthetic / porous, and / or synthetic porous / non-porous with deliberate perforations. Infusion Packet(s) / System + / - tag, support member for assistance, consumer compliance: promotion, advertising, education, entertainment, (toy / game), etc. Manual and / or power operated parts, lights, noise, etc. Additionally incorporated; unique business modalities with test market opportunities and / or the ability to provide income and / or esteem for the health challenged.

A delivery system for inclusion in an edible composition is formulated to have at least two active components with an encapsulating material for managing the release of the two actives relative to each other when used in an edible composition.

The five component composition consisting essentially of: (1) Water soluble antioxidant vitamin C or ascorbic acid, or any of its forms or derivatives, or mixtures thereof. (2) Oil soluble antioxidant vitamin E or Alpha-tocophorol, or any of its forms or derivatives, or mixtures thereof. (3) The element selenium, or a chemical (or composition) containing it, or mixtures thereof. The most preferred chemical containing selenium is dimethyl selenide and mixtures thereof. The words "dimethyl selenide" here and hereinafter mean dimethyl selenide and / or it's oxidation products, including dimethyl selenoxide. (4) A sulfur amino acid, in any form, or a sulfur peptide, or a sulfur protein, or any of their derivatives, or mixtures thereof. The mixture of methionine and cysteine, which contains as impurities some seleno-methionine and some selenocysteine, is preferred,-the tripeptide glutathione containing cysteine is also preferred. (5) Another antioxidant, other than vitamin C and other than vitamin E, which is synthetic or natural and water soluble or oil soluble, or a mixture of such antioxidants, or a combination of such forms thereof. The mixtures of butylated hydroxyanisole and ethoxyquin is preferred.

The present invention relates to a novel natamycin dosage form for the food industry, and more particularly to microcapsules where natamycin is encapsulated within a physiologically acceptable shell to provide a protected natamycin product. The present invention relates also to novel processes for preparing the capsules according to the invention, as well as to the use of the capsules of the present invention. The invention further relates to food products containing natamycin in encapsulated form.

A process for coating a polyunsaturated fatty acid (PUFA)-containing carrier particle or a PUFA matrix particle, or a liquid pharmaceutical-containing carrier particle or a liquid pharmaceutical matrix particle. Also disclosed are such particles made by the process of the invention and foods, pharmaceuticals, beverages, nutritional supplements, infant formula, pet food and animal feed with incorporate such particles.

Compositions and methods to reduce the oxidation of an oxidizable material are disclosed herein. The invention provides a microcapsule comprising a core material, which is the phospholipid-stabilized oxidizable material, and a shell wall that encapsulates the core material. Food products comprising an edible material and a microcapsule of phospholipid-stabilized oxidizable material are also disclosed.

The invention relates to a granular delivery system based on a matrix combining at least a carbohydrate material with from 1 to 7% of prehydrated agar agar. The system disclosed is particularly stable in aqueous environments and is capable of providing the controlled release of an active flavoring or perfuming ingredient there-encapsulated.

The present disclosure describes a delivery device for administration of nutraceuticals or pharmaceuticals, which device contains a soft gel shell comprising a gelatin-based water soluble film forming polymer, an acid insoluble polymer, and at least one reducing sugar and water, including processes, gel mixtures used for device production, and coatings containing such gel mixtures.

A probiotic composition essentially comprises 15 to 20 wt % of milk powder, 25 to 30 wt % of corn starch, 8 to 15 wt % of modified starch (capsul), 10 to 15 wt % of ethylcellulose, 5 to 15 wt % of bacterial broth, and 10 to 15 wt % of talc. The probiotic composition is microencapsulated to form a plurality of microencapsule coated with an acid-resistant enteric coating for improving the enteric acid-resistance, the probiotic survival rate, the antimicrobial property, the stability, the moisture-proof property, and the mobility of the probiotic composition preventing from coagulation in a moist environment and for being used as an additive applied to livestock feed.

Encapsulation compositions in which an encapsulate (A) is encapsulated in a matrix (B) may be prepared by:(i) mixing matrix (B) with a liquid plasticizer and encapsulate (A) in an extruder, to obtain a melted mixture of encapsulate (A) and matrix (B); and(ii) extruding the melted mixture, to obtain an extruded mixture.

The present invention relates to a process for producing a spherical particle comprising an aggregate of particles containing at least 95% of a water-soluble single substance having a viscosity of 10 mPa.s or less as determined in the form of a saturated aqueous solution, the process comprising: preparing moist spherical particles of the single substance by charging, as cores, crystalline particles or granulated particles of the single substance on a rotary disc in a processing vessel of a centrifugal tumbling granulating apparatus, wherein the granulated particles are prepared by granulating a powder of the single substance, and dispersing over the cores a powder of the single substance and simultaneously spraying on the cores a liquid such as water or the like while supplying slit air to provide a fluidized condition; and then fixation treating the moist spherical particles by drying them while spraying an aqueous solution of the single substance or the like on the spherical particles in a fluidized bed apparatus; to the spherical particle produced by the process; and to a pharmaceutical preparation and a food containing the spherical particle.

The present invention relates to microcapsules, and more particularly to microcapsules where an aqueous bead or beads comprising the active ingredient is encapsulated in or by a hydrophobic shell matrix. The present invention relates also to novel methods for preparing the microcapsules according to the invention, as well as to the use of the microcapsules of the present invention. A microcapsule of the present invention comprises a solidified hydrophobic shell matrix, an encapsulated aqueous bead or beads which is / are encapsulated in or by the solidified hydrophobic shell matrix, and an active ingredient or active ingredients dissolved or incorporated in the encapsulated aqueous bead or beads.

A chewing gum composition comprises about 5% to about 95% gum base, about 5% to about 96% bulking and sweetening agents, and about 0.1% to about 15% flavor, wherein at least part of the flavor is a long-duration flavor material comprising a vinyl polymer encapsulated matrix. The matrix itself includes about 30% to about 60% acacia gum, about 30% to about 60% corn syrup solids having a DE of between about 24 and about 44 or equivalent hydrogenated starch hydrolysates, and about 2% to about 20% hydrocolloid material, with the acacia gum and corn syrup solids or hydrogenated starch hydrolysates together comprising at least 80% of the matrix. The vinyl polymer comprises between about 30% and about 80% of the long-duration flavor material.

Oral compositions including an encapsulated active component(s) are provided. The oral compositions include a carrier composition including a first reactive component. The oral compositions also include an active composition. The active composition includes at least one active component encapsulated in a coating. The coating includes a hydrophilic material and at least one second reactive component, wherein an interaction between the first and second reactive components preserves the activity and / or availability of the active.

Comestible products, for example beverage products, are disclosed containing encapsulated probiotic bacteria having resistance to subjection to at least thermal and acidic conditions. Beverage products include at least one aqueous liquid and capsules comprising a gelled mixture of alginate and denatured protein, and probiotic bacteria entrapped within the gelled mixture. The average particle size of the capsules is optionally less than 1000 microns (μm) in diameter, such as less than 500 μm in diameter. Methods are provided for making such encapsulated probiotics by providing a mixture comprising sodium alginate, denatured protein and active probiotic cells, and combining the mixture with a divalent cation to initiate cold gelation of the sodium alginate and denatured protein to form a second mixture. The second mixture is passed through an opening having a diameter of less than 1000 μm to form capsules. The weight ratio of protein to alginate is from 1:1 to 9:1.

A nanoparticle includes a carbohydrate carrier and a bacteriocin. A method for prolonging efficacy of a bacteriocin against a food pathogen includes providing the bacteriocin in a delivery system, and inhibiting the food pathogen by the bacteriocin. A duration of efficacy of the bacteriocin against the food pathogen when the bacteriocin is provided in the delivery system exceeds a duration of efficacy of the bacteriocin when the bacteriocin is provided without the delivery system.

The present invention provides an oral delivery system for creatine. The creatine delivery system may additionally contain other bioactive ingredients such as nutraceuticals, botanicals, and vitamins. The delivery system comprises an ingestible matrix within which a creatine formulation and optionally one or more bioactives are substantially uniformly and completely dispersed and in which degradation of the creatine and other bioactives is minimised or eliminated. The invention also provides methods of preparing and using the delivery system.

A microencapsulated product comprises a core, a first shell comprising a protein and being substantially carbohydrate-free, and a second shell comprising a carbohydrate and being substantially protein-free. The double shell structure provides a strong shell that makes the microcapsule suitable for use in food products. The core can be a lipid, and in particular a structured lipid with nutritional benefits, such that the nutritional benefits can be passed on to the consumer. The microcapsules of the present invention can be used in making foods products, beverage products, and mixes for making such food and beverage products.

The disclosure relates to a solid glass matrix of polysaccharide, saccharides and polyols as delivery vehicle for preservation and post gastric administration of a probiotic. The delivery vehicle is capable of releasing the probiotic at their site of action. The present invention further includes methods of making and using the solid glass matrix delivery vehicle of the invention.

Oxygen sensitive oils or oils containing oil soluble oxygen sensitive substances are encapsulated in proteins which have been reacted with carbohydrates that contain reducing sugar groups. An aqueous mixture of a protein preferably casein and a carbohydrate preferably a sugar is heated within the range of 60 to 160° C. so that Maillard reaction products are formed in the aqueous mixture. The oil phase, up to 50% by weight is then emulsified with the aqueous phase to form micro encapsulated oil particles. The formation of MRP may also be done after emulsification prior to drying. The emulsions can be used as food ingredients or dried to form powders

Microcapsules comprising an agglomeration of primary microcapsules, each individual primary microcapsule having a primary shell and the agglomeration being encapsulated by an outer shell, may be prepared by providing an aqueous mixture of a loading substance and a shell material, adjusting pH, temperature, concentration and / or mixing speed to form primary shells of shell material around the loading substance and cooling the aqueous mixture until the primary shells agglomerate and an outer shell of shell material forms around the agglomeration. Such microcapsules are useful for storing a substance and for delivering the substance to a desired environment.

A composition for promoting gastrointestinal and / or cardiovascular health comprising a gelling dietary fiber and a non-gelling dietary fiber in a weight ratio of from about 5:1 to about 1:2.5; a coating component and a wetting component in a weight ratio of from about 20:1 to about 1:1; wherein a weight ratio of coating component plus wetting component to said gelling dietary fiber or said non-gelling dietary fiber is from about 25:1 to about 1:5 is disclosed. Also disclosed herein is a composition for promoting gastrointestinal and / or cardiovascular health comprising a gelling dietary fiber; a non-gelling dietary fiber; and an amount of a coating component sufficient to coat the particles of the gelling dietary fiber, such that the water-absorbing ability is reduced and the organoleptic properties of the composition are improved. Methods of promoting gastrointestinal and / or cardiovascular health are also included.

Nutrient clusters for food products, such as for addition to Ready-To-Eat cereals, are made in the form of aggregates or clusters comprising a first particulate component; a nutrient powder blend, and sufficient binder to adhere the powder to the particulates. The nutrient clusters are in the form of pieces each weighing from about 0.3 to 5 g. and having a moisture content of about 2% to 10%. Such nutrient clusters are prepared by applying a liquid binder to the particulates to form sticky particulates, adding a powdered nutrient blend, and curing the mixtures to form hardened dried nutrient clusters. The nutrient cluster can contain 100% US recommended daily allowance of essential vitamins and minerals and can contain added macronutrients such as soy proteins, soluble fiber, and / or calcium in nutritionally dense form in as little as 5 to 15 g of nutrient clusters. The clusters find particular suitability for use in providing to-order customized cereal products in response to particular customer requirements for nutrition.

Complex coacervates incorporating one or more hydrophobic substances are provided, that are stable in certain aqueous systems and food products. The coacervates may be used as an ingredient in food products, e.g., in beverages, dry foods, and semi-moist foods. Methods for producing the complex coacervates and food products are also disclosed herein.

Disclosed are processes for stabilizing omega-3 fatty acids for use in food products. The processes permit creation of a variety of food forms and food ingredients that contain omega-3 fatty acids like docosahexaenoic acid and eicosapentaenoic acid wherein these foods and food forms are stable for months without developing fishy aromas or tastes. This stability enables the incorporation of omega-3 fatty acids into food forms such as ready to eat cereals, trail mixes, chips, granola bars, toaster pastries, baked goods, cookies, crackers, fruit pieces and fruit leathers. The processes utilize a zein coating to protect and stabilize the omega-3 fatty acids.