A system to store food products within a heated compartment is provided. The system includes an enclosure that receives stacked trays, and an elevator to lift trays to a position to receive a plurality of food products from a conveyor or another source. A fork may be provided that receives a cooked food product thereon and rotates to allow the cooked food product to fall into the positioned tray while being maintained in a horizontal manner. A shuttle moves a full tray into a heated compartment, which moves trays therewithin to organize them for future use within a restaurant operation.

A plurality of heat sources are arranged about at least one conveyor. The plurality of heat sources are configured to output heat towards the at least one conveyor. At least one temperature sensor is arranged at a food product inlet relative to the at least one conveyor. A controller is configured to receive temperature measurements from the at least one temperature sensor and to operate at least one heat source of the plurality of heat sources between a high fire condition and a low fire condition in an idle mode operation and a cooking mode operation.

A cooking system, including a product loader for dispensing uncooked food product; a broiler/oven having an inlet end, a cooking chamber, a discharge end, a motorized conveyor system for conveying food through said broiler from said inlet end to said discharge end, and heating elements for heating and cooking food products in said cooking chamber. Disposed at the input end between product feed belts and broiler conveyor belts is a photoelectric sensor system that detects the presence of food product passing from the feed belts to the broiler conveyor belts which, when tripped, locks in the cook time for a recipe under execution and prevents inadvertent user changes that would adversely affect the cooked product quality.

A belted food warmer assembly is disclosed that includes a housing containing a heated rotating drum, a belt roller, and a belt. The belt is draped over a portion of the heated rotating drum and is configured to hold a flexible food product against the heated drum as the food product rotates with the heated drum.

In one aspect, a cooking device includes independently controllable cooking zones. In one aspect, a cooking device includes a first cooking zone with heated air configured to move horizontally there through in a first direction and a second cooking zone with heated air configured to move horizontally there through in a second direction different than the first direction. In one aspect, the first and second directions are opposite directions. In one aspect, the heated air flows from one side of the cooking device.

A thermal processing apparatus (20) includes a spiral conveyor system (22) configured into an ascending spiral stack (26). An air balance tunnel (40) includes a tunnel housing (76) positioned inside of a thermal processing chamber adjacent an outlet opening (36). A conveyor belt (24) travels through the housing on its way out of the processing chamber. An air pervious ejector assembly (78) is positioned within the housing at an elevation above the conveyor belt (24). An air pervious evacuation sheet (80) is located within the housing at a location beneath the conveyor belt (24). An air pervious cover assembly (150) is positioned over the conveyor belt (24) at a location just before the conveyor belt enters the air balance tunnel (40). The cover sheet (150) is connectable to the ejector assembly (78) so as to remove the ejector assembly from the tunnel housing (76) by manually moving the cover assembly (150).

A cooking system includes a grill, a first arm assembly and a second arm assembly. An electronic hardware controller is in signal communication with the at least one grill, the first arm assembly and the second arm assembly. The controller operates the first arm assembly to transfer a prepared product to the grill, and operates the second arm assembly to transfer a cooked product from the grill.

Systems and methods for cutting and cooking a substance are disclosed. Exemplary implementations may: convey, via a primary conveying subsystem, a layer of food substance along a conveyance path along which the layer of food substance is conveyed; cut, via a cutter, the layer of food substance into food pieces; apply, via a primary pressurized fluid outlet, primary pressurized fluid such that the food pieces are released from the cutter; heat, via the heating mechanism, a chamber; apply, via a secondary pressurized fluid outlet, secondary pressurized fluid so that the food pieces are held flat to the primary conveying substrate, and hold, via a secondary conveying subsystem, the layer of food substance flat between the primary conveying substrate and a secondary conveying substrate for at least a portion of the chamber.

A system for automatically folding a box for fast food delivery is disclosed. The system includes a wall, a track within the wall, a conveyer channel located adjacent to the wall. The panels are initially arranged within the channel, so a first panel is positioned above and in front of the second panel. The panels will move in a series of five positions. The first position having the first panel and second panel adjacent to one another. The second position shifting the second panel downward to a height lower than the first. The third position moving the first panel so that it is substantially vertical creating an angle near 90 degrees between the first and second panel. The fourth position returning the first panel proximate to its original position. And a fifth position having a portion of the first panel extended over the second panel.

A heat transfer system for heat treatment of a food product includes an enclosure with a food product inlet and a food product outlet. At least one conveyor extends into the enclosure from the food product inlet. At least one heat source is arranged relative to the at least one conveyor. A ramp at least partially extends below the at least one conveyor.