A23K20/153

FEED COMPOSITION AND MANUFACTURING METHOD THEREFOR

One of problems is to provide a feed composition having both immunostimulatory action and mold toxin adsorbing action. Another one of the problems is to provide a technique for minimizing decomposition of a feed composition made using yeast. Yet another one of the problems is to provide a method of inexpensively manufacturing the above-mentioned feed composition.

The feed composition is obtained by inclusion of nucleic acid having molecular weights ranging from 5,000 to 100,000, a yeast cell wall component/yeast cell wall components, and ligno sulfonic acid. A feed composition may be manufactured by supplying nucleic acid and a yeast cell wall component that are both derived from a raw material, yeast. To supply the nucleic acid and a yeast cell wall component/yeast cell wall components from the yeast, the yeast may be subjected to alkaline treatment to prepare the nucleic acid and enucleated yeast.

FEED COMPOSITION AND MANUFACTURING METHOD THEREFOR

One of problems is to provide a feed composition having both immunostimulatory action and mold toxin adsorbing action. Another one of the problems is to provide a technique for minimizing decomposition of a feed composition made using yeast. Yet another one of the problems is to provide a method of inexpensively manufacturing the above-mentioned feed composition.

The feed composition is obtained by inclusion of nucleic acid having molecular weights ranging from 5,000 to 100,000, a yeast cell wall component/yeast cell wall components, and ligno sulfonic acid. A feed composition may be manufactured by supplying nucleic acid and a yeast cell wall component that are both derived from a raw material, yeast. To supply the nucleic acid and a yeast cell wall component/yeast cell wall components from the yeast, the yeast may be subjected to alkaline treatment to prepare the nucleic acid and enucleated yeast.

Method for producing double-stranded RNA-rich lactic acid bacterium, and said lactic acid bacterium

An object of the present invention is to provide a method for efficiently obtaining a lactic acid bacterium that is made to contain a large amount of double-stranded RNA; and a lactic acid bacterium having a high double-stranded RNA content obtained by the method. The object is achieved by: (1) a method for producing a double-stranded RNA-containing lactic acid bacterium, including a step of culturing a lactic acid bacterium under at least one condition of an aeration condition and a low-temperature condition lower than an optimum temperature, thereby obtaining the double-stranded RNA-containing lactic acid bacterium; (2) a double-stranded RNA-containing lactic acid bacterium, in which the content of double-stranded RNA is 2.0 times or more as compared with the content of double-stranded RNA when a bacterium of the same strain is cultured for the same culture time under an optimum temperature and non-aeration condition; or the like.

MUTANT LIPASE AND USE THEREOF

The present invention relates to a polypeptide having lipase activity wherein the polypeptide when aligned with the polypeptide according to SEQ ID NO: 1, comprises at least an amino acid substitution L410X and optionally one or more amino acid substitutions chosen from S365Q, S365N, L413M, G414A, G414S, G414V, G414T, V534L and V534l, wherein the 10 numbering of amino acid position(s) is/are defined with reference to SEQ ID NO: 1. The invention further relates to a process for preparing a product comprising an oil or fat comprising bringing an intermediary form of the product comprising oil or fat into contact with a polypeptide as disclosed herein and the use of a polypeptide as disclosed herein to saturated fatty acids in an oil or fat.

MUTANT LIPASE AND USE THEREOF

The present invention relates to a polypeptide having lipase activity wherein the polypeptide when aligned with the polypeptide according to SEQ ID NO: 1, comprises at least an amino acid substitution L410X and optionally one or more amino acid substitutions chosen from S365Q, S365N, L413M, G414A, G414S, G414V, G414T, V534L and V534l, wherein the 10 numbering of amino acid position(s) is/are defined with reference to SEQ ID NO: 1. The invention further relates to a process for preparing a product comprising an oil or fat comprising bringing an intermediary form of the product comprising oil or fat into contact with a polypeptide as disclosed herein and the use of a polypeptide as disclosed herein to saturated fatty acids in an oil or fat.

Preparation method and application of astaxanthin H1-, or H2- or J-aggregate water dispersion system

Preparation method and application of astaxanthin H1-, or H2- or J-aggregate water dispersion system are provided. The three kind of color-different astaxanthin multimer nano-dispersion systems utilize a special molecular structure of natural biomacromolecule chitosan and fish sperm DNA as well as physical interaction between macromolecules to induce formation and stability of astaxanthin multimers under solvent and salt ion-effects. Low-toxicity ethanol is selected as a good solvent for astaxanthin. The organic solvent can be completely removed in the later stage of the preparation process, and can be further enriched and recycled, which is beneficial to clean production and low cost. By adjusting process parameters, the H1-, or H2- or J-type astaxanthin aggregate water dispersion system can be obtained, so as to control a coloration range of astaxanthin water-based products to be yellow, orange and pink. Furthermore, during concentration, dehydration and reconstitution, astaxanthin aggregation patterns and coloring effects are maintained.

Aptamers for mycotoxin detoxification

Mycotoxin-deactivating aptamers, especially DNA aptamers, bind to mycotoxins in feed and feed ingredients resulting in the reduction or elimination of toxic and carcinogenic effects of mycotoxins. The invention also discloses a composition comprising a mycotoxin-deactivating aptamer, a binding agent, a biotransforming agent and an antioxidant for detoxifying mycotoxins in feeds. In addition, the invention teaches the methods of preparing the mycotoxin-deactivating aptamer-based composition and also the methods of using it as a feed additive. Furthermore, the invention relates to the use of the mycotoxin-deactivator/s alone, or in a composition comprising the aptamers and other mycotoxin-detoxifying agents, in feeds and feed ingredients for detoxifying the major mycotoxins such as aflatoxins, deoxynivalenol, zearalenone, fumonisins and ochratoxin A.

Aptamers for mycotoxin detoxification

Mycotoxin-deactivating aptamers, especially DNA aptamers, bind to mycotoxins in feed and feed ingredients resulting in the reduction or elimination of toxic and carcinogenic effects of mycotoxins. The invention also discloses a composition comprising a mycotoxin-deactivating aptamer, a binding agent, a biotransforming agent and an antioxidant for detoxifying mycotoxins in feeds. In addition, the invention teaches the methods of preparing the mycotoxin-deactivating aptamer-based composition and also the methods of using it as a feed additive. Furthermore, the invention relates to the use of the mycotoxin-deactivator/s alone, or in a composition comprising the aptamers and other mycotoxin-detoxifying agents, in feeds and feed ingredients for detoxifying the major mycotoxins such as aflatoxins, deoxynivalenol, zearalenone, fumonisins and ochratoxin A.

Processes for producing lipids

The present invention relates to processes for extracting lipid from vegetative plant parts such as leaves, stems, roots and tubers, and for producing industrial products such as hydrocarbon products from the lipids. Preferred industrial products include alkyl esters which may be blended with petroleum based fuels.

COMPOUNDS THAT MODULATE FATTY ACID RECEPTOR ACTIVITY AND PET FOOD PRODUCTS CONTAINING THE SAME

A flavor composition comprising at least one compound that modulates, increases and/or enhances the activity of a GPR120 fatty acid receptor that can be used to enhance the fatty acid taste and/or palatability of pet food products is described herein. Also disclosed herein are methods for identifying said compounds.