Methods of controlled heating and/or agitation for liquid food or beverage product creation are disclosed. A method of producing a melted food or beverage liquid product includes receiving a receptacle containing frozen liquid contents in a chamber of a dispenser and identifying a characteristic of the receptacle and/or the contents. The method also includes melting at least a portion of the contents by selectively performing at least one of: heating the receptacle and/or the contents, supplying a dilution liquid to an interior of the receptacle, and/or applying motion to the receptacle and/or the contents in the receptacle. The selectively performing at least one of heating, supplying dilution liquid, and/or applying motion is based on the identified characteristic. The method further includes perforating the receptacle and dispensing the melted food or beverage liquid product from the receptacle.

A vacuum cooling device for the cooling of foodstuff, in particular hot bakery products comprises a vacuum chamber (2) containing a product chamber (7) for receiving the foodstuff for its cooling and a separation chamber (28), a vacuum source (3), such as a vacuum pump which is connected to the separation chamber (28) and a vapor condenser (4) for condensation of vapor generated during the cooling process in the product chamber. The vapor condenser comprises a cooling medium in a sump (11) and comprises a vapor introduction element (8, 9, 10) for introducing the vapor into the cooling medium.

The present technology provides a method for extending the shelf-life of a cooked meat substitute. The method includes adding a shelf-life extending agent that includes konjac gum, psyllium fiber, or mixtures thereof to a non-meat protein to obtain a meat substitute; and cooking the meat substitute to obtain the cooked meat substitute; wherein the refrigerated shelf-life of the cooked meat substitute is longer than a cooked meat substitute that does not include the shelf-life extending agent.

The present invention relates to a method of manufacturing a laver-like processed food using onions (Allium cepa L.), and more specifically, to a method of manufacturing a laver-like processed food using onions that has excellent texture and an improved flavor, wherein, according to the method of the present invention, after onions are molded into sheets and dried, the onion sheets are prevented from sticking to a laver mat for drying and being damaged when the onion sheets are separated from the laver mat, and in this way, a laver-like processed food that is thin and springy can be mass-produced without wasting raw ingredients.

The efficiency of a device for cooling or heating objects on a belt that moves through a path of a helix, in which gaseous cooling or heating medium is circulated within the device, is improved by positioning fans that circulate the cooling or heating medium so that the fans are distanced from the top of the helix.

A method for allocating a chilling substance to a transport tote for preserving a food product therein includes measuring thermal properties of the food product to be transported; calculating environmental conditions for which the transport tote is to be exposed during transport; allocating an amount of the chilling substance to a container for being deposited in the transport tote for the preserving of the food product; and depositing the container in the transport tote. A related apparatus is also provided.

A method for freezing a food product in a cryogenic freezer includes sensing at least one physical characteristic of the food product in real time, providing a cryogenic substance to the food product for heat transfer at said food product, automatically self-adjusting the heat transfer at the food product responsive to the sensing the at least one physical characteristic, and continuously self-adjusting the heat transfer for bringing the food product to a select temperature. A related freezer apparatus is also provided.

A frozen, microwaveable, coated food product comprising: a core of cooked edible material having a weight equal to 15-95 wt. % of the food product; a fried coating that envelops the core of edible material and has a weight equal to 5-85 wt. % of the total weight of the food product, said coating comprising at least three coating layers, including an inner crumb layer, an outer crumb layer and a batter layer that separates the inner crumb layer from the outer crumb layer; wherein both the inner crumb layer and the outer crumb layer comprise a milled farinaceous dough extrudate containing 0.05-5 wt. % of added hydrocolloid.

A process for metering the disposition of a food product into cavities forming a pellet. The cavities are defined in a conveyor as individual cavities. Each cavity defines a specific volume. The process includes supplying a quantity of food product in a supply chamber which includes a plurality of nozzles aligned above the conveyor. The nozzles are aligned with a predetermined portion of the cavities. A predefined supply of food product is dispensed and metered through each nozzle. The food product is dispensed through the nozzles into the cavities without exceeding the specific volume of the cavity. The food product is frozen into an individual quick frozen pellet starting immediately upon disposition in one of the cavities. The step of metering the predefined amount of food product includes metering a predetermined weight of the food product.

The present invention relates to a temperature treatment apparatus (1) for solidifying portions of fluid. The apparatus comprises an endless product conveyor belt (7) comprising a plurality of moulds (8) made of elastic material, each of the plurality of moulds having an open end and each of the plurality of moulds being arranged to convey a portion of fluid during solidifying of the same, a first impingement temperature treatment device (4) arranged in a first temperature treatment zone (A), a second impingement temperature treatment device (5) arranged in a second temperature treatment zone (B), wherein the first temperature treatment zone is arranged upstream the second temperature treatment zone with regard to a direction of movement of the portions of fluid during use of the apparatus, wherein the first temperature treatment zone is arranged to solidify a crust on the portions of fluid at least on a surface of the fluid closest to the open end of the moulds when the moulds comprising portions of fluid are conveyed through the first temperature treatment zone, and wherein the second temperature treatment zone is arranged to further solidify each portion of foodstuffs such that at least partly solidified portions are formed when the moulds comprising portions of fluid are conveyed through the second temperature treatment zone.