A continuous flow dryer system according to various embodiments can include a source for supplying a material to be treated having a high moisture content, such as a distiller wet grain, a profile screw compression dryer, a profile screw, and a drive coupled to the profile screw for axially rotating the profile screw. The profile screw compression dryer includes an inlet for receiving the material for drying, which is fed therein in a controlled manner. The profile screw is provided within the housing of the dryer. The profile screw has a diameter that increases in dimension in a direction away from the inlet for increasing the compressive force applied to the material to assist with drying as the profile screw rotates and moves the material longitudinally along the profile screw to produce a final product, for example, a distiller dried grain for use as an animal feed.

A continuous flow dryer system according to various embodiments can include a source for supplying a material to be treated having a high moisture content, such as a distiller wet grain, a profile screw compression dryer, a profile screw, and a drive coupled to the profile screw for axially rotating the profile screw. The profile screw compression dryer includes an inlet for receiving the material for drying, which is fed therein in a controlled manner. The profile screw is provided within the housing of the dryer. The profile screw has a diameter that increases in dimension in a direction away from the inlet for increasing the compressive force applied to the material to assist with drying as the profile screw rotates and moves the material longitudinally along the profile screw to produce a final product, for example, a distiller dried grain for use as an animal feed.

A cartridge assembly, a cartridge device, a food forming module, and a cooking apparatus capable of using three-dimensional (3D) printing technology to form and cook food are provided. The cooking apparatus includes a main body, a cooking compartment is provided in the main body, and a cartridge assembly is installed in the cooking compartment to be capable of linear motion and rotational motion. The cartridge assembly includes a cartridge body having cartridge mounts formed therein, cartridge cases are mounted on the cartridge mounts, and cartridges are disposed in the cartridge cases and include food ingredients that are accommodated therein.

A user equipment is provided. The user equipment includes a user interface, a transceiver and a processor. The user interface may receive an input of a food model including at least one of a shape, an ingredient, or a color of a food in accordance with a touch input of a user. The transceiver may transmit information of the food model to a cooking apparatus capable of shaping and heating the food. The processor may transmit the information of the food model to the cooking apparatus via the transceiver to allow the cooking apparatus to shape the food according to the food model. Further, the user interface may display an automatic cooking button, a draw button, a cooking method button, and an output button.

A method of making a foodstuff comprises selecting a mass comprising an edible filamentous fungus, especially of Fusarium venenatum; selecting an ingredient (A) which may be pea protein; and processing said mass and ingredient (A) in an extruder cooker to produce an extruded foodstuff.

A method of making a foodstuff comprises selecting a mass comprising an edible filamentous fungus, especially of Fusarium venenatum; selecting an ingredient (A) which may be pea protein; and processing said mass and ingredient (A) in an extruder cooker to produce an extruded foodstuff.

A system for producing food product may include an inner tube configured to extrude a first component, and an outer tube provided about the inner tube to define an annular space through which a second component is extruded, the inner and outer tubes, alone or in conjunction with a nozzle or other extrusion mechanism, defining an outlet. Additionally, a collagen head can be configured to apply a layer of collagen gel over the second component. The inner and outer tubes are sized, and flow rate may be configured such that an initial diameter of the first component exiting the outlet is substantially smaller than a final diameter of the first component, and an initial thickness of the second component exiting the outlet is substantially greater than a final thickness of the second component.

A system for producing food product may include an inner tube configured to extrude a first component, and an outer tube provided about the inner tube to define an annular space through which a second component is extruded, the inner and outer tubes, alone or in conjunction with a nozzle or other extrusion mechanism, defining an outlet. Additionally, a collagen head can be configured to apply a layer of collagen gel over the second component. The inner and outer tubes are sized, and flow rate may be configured such that an initial diameter of the first component exiting the outlet is substantially smaller than a final diameter of the first component, and an initial thickness of the second component exiting the outlet is substantially greater than a final thickness of the second component.

The present invention is concerned with an apparatus for making a coated frozen confectionery product by co-extrusion of a frozen confection and a coating substance, and in particular a nozzle body forming part of the apparatus. The nozzle body according to the invention has a nozzle exit, through which the coated confectionery product is discharged as stream; the stream of coated confectionery product being the frozen confectionery product at least partially coated with the coating substance. The nozzle body preferably comprises: —a frozen confection product channel communicating with at least one frozen confectionery inlet port and leading to the nozzle exit, —at least one coating supply channel communication with at least one coating inlet port and leading to at least one coating application chamber opening into the frozen confection product channel at a position upstream of the nozzle exit, and—a spreading tongue arranged downstream of the at least one coating application chamber and upstream of or forms part of the nozzle exit, said spreading tongue being adapted to distribute the coating substance onto the surface of the frozen confection and define the cross sectional shape of the stream of coated confectionery product. The invention also relates to a method for making a coated frozen confectionery product by co-extrusion.

The present invention is concerned with an apparatus for making a coated frozen confectionery product by co-extrusion of a frozen confection and a coating substance, and in particular a nozzle body forming part of the apparatus. The nozzle body according to the invention has a nozzle exit, through which the coated confectionery product is discharged as stream; the stream of coated confectionery product being the frozen confectionery product at least partially coated with the coating substance. The nozzle body preferably comprises: —a frozen confection product channel communicating with at least one frozen confectionery inlet port and leading to the nozzle exit, —at least one coating supply channel communication with at least one coating inlet port and leading to at least one coating application chamber opening into the frozen confection product channel at a position upstream of the nozzle exit, and—a spreading tongue arranged downstream of the at least one coating application chamber and upstream of or forms part of the nozzle exit, said spreading tongue being adapted to distribute the coating substance onto the surface of the frozen confection and define the cross sectional shape of the stream of coated confectionery product. The invention also relates to a method for making a coated frozen confectionery product by co-extrusion.