A method for manufacturing a food product includes depositing a first foodstuff; transporting the first foodstuff in a first driven direction; depositing a second foodstuff upon a portion of an upper surface of the first foodstuff; transporting the first foodstuff with the second foodstuff deposited thereupon in the first driven direction; separating the first foodstuff with the second foodstuff metered thereupon into a plurality of sheet segments; serially transporting each sheet segment of the plurality of sheet segments from the first driven direction to a second driven direction that is transverse to the first driven direction; compressing the serially transported sheet segments for forming a plurality of thickness segments including the first foodstuff and the second foodstuff that define an elongated, food product body; separating the elongated, food product body into a plurality of food product body units; and finishing the plurality of food product body units.

A stuffed food forming machine disclosed includes a framework (600), a rotation assembly (100). A sending and cutting station (20) and a filling station (30) are settled around the rotation assembly. An opening (106) for collecting wrapper residues is set on the rotation assembly. A distance between an internal side of a shaping mold (1001) and a center of the rotation assembly (100) is bigger than a distance between the edge of the opening (106) and the center of the rotation assembly (100). The opening (106) is able to collect the wrapper residues while takes advantage of the space below the rotation assembly, which requires no extra space and the whole machine remains the compact size.

Exemplary embodiments are directed to a food product folding apparatus for forming a triangular food product, generally including a folding section, and first, second, third and fourth actuator mechanisms. The folding section includes, first, second, third and fourth folding platforms. The first, second, third and fourth actuator mechanisms are configured to actuate rotation of respective first, second, third and fourth folding platforms into first, second, third and fourth fold positions to create first, second, third and fourth folds in the food product.

The invention relates to the field of technologically advanced, automated, fully integrated equipment for producing and packaging convenience food products. The system has a first transport device for food bases, above which a primary food processing subsystem is mounted, consisting of a cooler with equipment making it possible to extract and feed food bases onto the first transport device, and of a group of food distribution units, each of which is configured in the form of a container for food ingredients with a device for processing same, an oven equipped with a second transport device for the food bases, in the area of the input of which a means for transferring the partially ready product is provided, and in the area of the output of which there is a working section equipped with an element for transferring the baked product produced to a packaging subsystem

The invention relates to the field of technologically advanced, automated, fully integrated equipment for producing and packaging convenience food products. The system has a first transport device for food bases, above which a primary food processing subsystem is mounted, consisting of a cooler with equipment making it possible to extract and feed food bases onto the first transport device, and of a group of food distribution units, each of which is configured in the form of a container for food ingredients with a device for processing same, an oven equipped with a second transport device for the food bases, in the area of the input of which a means for transferring the partially ready product is provided, and in the area of the output of which there is a working section equipped with an element for transferring the baked product produced to a packaging subsystem

In one example embodiment, a system for treating a tissue site is disclosed comprising a dressing adapted to contact the tissue site and provide a fluid seal between a therapeutic environment and a local external environment, and a solution source fluidly coupled to the dressing and adapted to deliver an antimicrobial solution comprising a peroxy α-keto carboxylic acid, such as peroxy pyruvic acid, to the tissue interface. The system may further comprise a negative-pressure source fluidly coupled to the dressing and adapted to provide negative pressure to the therapeutic environment after delivery of the antimicrobial fluid to the therapeutic environment. In another example embodiment, a method for treating a tissue site is disclosed comprising positioning a tissue interface to contact the tissue site, covering the tissue interface and the tissue site with a drape to provide a fluid seal between the therapeutic environment and the local external environment, and delivering an antimicrobial solution comprising peroxy α-keto carboxylic acid to the therapeutic environment before providing negative pressure to the therapeutic environment.

The invention relates to a device for guiding and supplying dough to a dough processing or transporting means comprising a receiving chamber with at least one belt conveyor comprising a conveyor belt forming at least part of a side wall of the receiving chamber. The receiving chamber is further provided with at least two sealing strips mounted at opposing side ends of the conveyor, wherein the sealing strips create a seal between the conveyor belt and an adjacent stationary wall forming another part of the side wall of the receiving chamber. The invention further relates to a chunker for subdividing dough into smaller parts comprising said device.

The invention relates to a device for guiding and supplying dough to a dough processing or transporting means comprising a receiving chamber with at least one belt conveyor comprising a conveyor belt forming at least part of a side wall of the receiving chamber. The receiving chamber is further provided with at least two sealing strips mounted at opposing side ends of the conveyor, wherein the sealing strips create a seal between the conveyor belt and an adjacent stationary wall forming another part of the side wall of the receiving chamber. The invention further relates to a chunker for subdividing dough into smaller parts comprising said device.

A device and a method for forming bar-shaped croissant dough in a U-shape, for then quickly and precisely arranging both legs of the U-shape to have the same length, and for producing croissants in a required shape are provided. A device for circularizing croissant dough 100 comprises a first guide for reducing a width 114 that moves a first end 5a of the U-shaped croissant dough 5 toward a center of the U-shape, a plate 118 that is inserted under a second end 5b of the U-shaped croissant dough 5 and lifts the second end 5b, a second guide for reducing the width 116 that moves the second end 5b that is lifted toward the center of the U-shape, and a pusher 130 that vertically presses the first end 5a and the second end 5b that are moved to the center of the U-shape so as to stick one to the other.

An apparatus (e.g., a conveyor system) configured to transport dough through a plurality of substations as described herein. The plurality of substations provides for the handling (e.g., cut, shape, flatten, proof, etc.) of the dough, which has been fermented for eighteen to twenty hours before beginning the baking process, without excess flouring.