A baked food composition is provided that exhibits an unexpectedly loose, crunchy texture and multi-textural chew. The baked composition comprises a high amount of expanded inclusions and shredded root vegetable, which are agglomerated by a binder component comprising low amounts of oil, added sugar, and flour. The food composition is preferably free of hydrocoiloid gums and sugar syrups.

Methods for manufacturing a powdered fermented paste, including the steps of: pretreating a fermented paste; freezing the pretreated fermented paste; freeze-drying the frozen fermented paste; grinding the freeze-dried fermented paste; and heat-drying the ground fermented paste.

The invention relates to citrus fibers in dry form having a storage modulus (G) of at least 50 Pa, said G being measured on an aqueous medium containing an amount of 2 wt % citrus fibers dispersed therein under a low-shear stirring of less than 10000 rpm.

The present invention relates to a process for the production of a food composition, and to obtain a better flow-ability and the avoidance of caking in such composition comprising an amorphous ingredient and a fiber.

A shelf stable fried product and a process for creating a shelf stable fried product is disclosed. Aspects include a process for managing fat migration, moisture migration, and cell degrading of a food product during frying. Aspects further include a resulting shelf stable food product that includes a crispy and/or crunchy texture and a desirable fat distribution.

A shelf stable fried product and a process for creating a shelf stable fried product is disclosed. Aspects include a process for managing fat migration, moisture migration, and cell degrading of a food product during frying. Aspects further include a resulting shelf stable food product that includes a crispy and/or crunchy texture and a desirable fat distribution.

The invention relates to food industry and medicine and describes the method of producing transformed plant cells, containing recombinant human alkaline phosphatase, and their use for maintaining the homeostasis of gastrointestinal tract as an agent, regulating gastrointestinal tract microflora and the immune system.

A method of making a porous, dehydrated food product comprises subjecting a food product to pulsed electric field treatment to form pores in the cell membranes of the food product, freezing the treated food product, and exposing the treated frozen food product to microwave radiation in a vacuum chamber at a pressure that is less than atmospheric and at which the boiling point of water is above 0 C., causing the frozen food product to thaw and water to evaporate to produce the porous, dehydrated product. The process is faster than freeze-drying and consumes less energy. The pulsed electric field treatment does not result in structural damage to the product, despite the thawing of the frozen product during the drying process.

The invention relates to the field of microbiology, specifically to an antimicrobial composition comprising a first and a second bacteriophage, wherein the composition has lytic activity against E. coli O157. The invention further relates to a use of the antimicrobial composition for controlling bacterial contamination in a food- or feed environment on or in food- or feed processing equipment or food- or feed containers or in a food- or feed product.

Methods of heating compositions comprising at least 20% (w/w) individually distinguishable edible inclusions are provided herein. The method of heating as disclosed herein comprises applying a first ohmic heating treatment to the composition, wherein the composition has at the end of the first ohmic heating treatment a temperature from 60 C. to 95 C.; applying a first holding step to the composition, wherein the temperature of the composition is at most 5 C. lower than the temperature of the composition after the first ohmic heating treatment; applying a second ohmic heating treatment to the composition, wherein the composition has at the end of the second ohmic heating treatment a temperature ranging from 75 C. to 110 C.; and applying a second holding step to the composition, wherein the temperature of the composition is at most 5 C. lower than the temperature of the composition after the second ohmic heating treatment, wherein the steps are performed as a continuous process with an initial back pressure of at least 4 bar.