This group of inventions relates to a method for manufacturing and a composition of the rice crispbreads, containing rice grits, water and a flavouring additive, which includes concentrated fruit and/or vegetable juice or a mixture of fruit and/or vegetable juices in a mixture with berry and/or fruit puree, a natural flavour, beta-carotene. A method for manufacturing of the rice crispbreads contains a treatment of the rice grits by purifying them from impurities and subsequent moistening with water; extruding the finished rice grits with simultaneous baking and briquetting; applying the flavouring additive on a surface of the crispbreads by spraying, the components for manufacturing of the crispbreads being taken according to the above composition.

Disclosed are compositions containing malt sprouts fraction extracts, their process of preparation and their uses.

A method of processing seed to nutritionally enhance food where seeds are placed in a tank and sanitized, and then washing and hydrating the seeds. The seeds are then allowed a period of germination before the seeds are dried for a predetermined amount of time and cooled.

A method of processing seed to nutritionally enhance food where seeds are placed in a tank and sanitized, and then washing and hydrating the seeds. The seeds are then allowed a period of germination before the seeds are dried for a predetermined amount of time and cooled.

A novel substitute for sodium salt is described that comprises deactivated yeast and a salt compound selected from NaCl, a potassium salt, an ammonium salt, a magnesium salt and mixtures thereof. Also described are a composition comprising this new substitute and the use of this substitute in breadmaking and in prepared dishes.

A gluten-free grain concentrate (GFGC) food product and stepwise process to prepare GFGC from the treatment of raw unground wheat germ, is provided resulting in a product having at least three active components including (a) 1% to 3% 2,6-dimethoxy-1,4-hydroquinone; (b) 2% to 4% monomethoxy-1,4-benzoquinone; and (c) 0.5% to 1.5% monomethoxy-1,4-hydroquinone; and at least one inactive component: 2,6 dimethyl benzoquinone.

The invention provides methods for the production of dough and bread products made at least in part of spent brewer's grain. The spent grain is removed from a brewing or distilling process, dried, frozen, and then further processed into a spent grain dough product. More specifically, the invention relates to the systems and methods for making frozen pizza dough balls composed at least in part of grain products that have been used in the process of brewing beer or distilling sprits such as whiskey.

A stabilized flour, such as stabilized whole grain wheat flour, exhibiting unexpectedly superior extended shelf life and superior biscuit baking functionality, may be produced with or without heating to inhibit lipase by subjecting whole grains or a bran and germ fraction or component to treatment with a lipase inhibitor, such as an acid or green tea extract. Treatment with the lipase inhibitor may be performed during tempering of the whole grains or berries or during hydration of the bran and germ fraction or component.

A stabilized flour, such as stabilized whole grain wheat flour, exhibiting unexpectedly superior extended shelf life and superior biscuit baking functionality, may be produced with or without heating to inhibit lipase by subjecting whole grains or a bran and germ fraction or component to treatment with a lipase inhibitor, such as an acid or green tea extract. Treatment with the lipase inhibitor may be performed during tempering of the whole grains or berries or during hydration of the bran and germ fraction or component.

A method of making an oat composition is provided. The method includes adding oat flour to water. The method further includes adding a first enzyme to the oat-water mixture. The method further includes increasing the temperature of the oat-water mixture with the first enzyme, and maintaining the increased temperature of the oat-water mixture with the first enzyme. The method further includes cooling the oat-water mixture with the first enzyme. The method further includes adding an enzyme blend to the oat-water mixture with the first enzyme. The method further includes removing an amount of solids from the third enzyme oat-water mixture to form the oat composition. The method is able to achieve higher yields, increased shelf stability, and lower waste from manufacturing compared to conventional oat-based food composition manufacturing methods.