Abstract: Paper dishes, such as plates and bowls, can be formed by pressing a flat sheet of paper into a three-dimensional shape. These paper dishes can have a generally square shape with generally straight edges and generally curved corners. In some designs, these paper dishes can have a side wall that varies from a steep wall angle in the straight areas of the dish and a more shallow wall angle in the curved areas or corners. The blank from which the dish is formed can have score lines which guide the formation of pleats in the paper during pressing. The score lines are oriented perpendicular to a baseline that has continuously variable curvature, with tighter curvature in the corners of the plate, and less curvature in the straight sections of the plate. The score lines generally do not share a common center.

Abstract: 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.

Abstract: The present disclosure teaches a package made up of a container and a lid. The package includes mount means without threads for coupling the lid to the container with a tight seal and for decoupling the lid from the container via rotation of the lid.

Abstract: A heat transfer system for cooking a food product is provided. The heat transfer system includes an enclosure, heat sources within the enclosure operate to output heat for a cooking process, at least one conveyor positioned relative to the cooking heat elements, and a warming assembly. The warming assembly is configured to receive at least one pan configured to store cooked food product. The warming assembly defines an controlled environment about the at least one pan. A blocking element defines an opening through the enclosure into the controlled environment of the warming assembly.

Abstract: Food orders are divided into components or tasks. Systems and methods of food order preparation communicate instructions for automated actions to devices to carry out the automated actions. A toaster operates to toast a bun according to toaster settings. A bun magazine operates to deliver a bun into the toaster. A condiment dispenser receives the bun from the toaster and operates to dispense at least one portion of at least one condiment onto the bun.

Abstract: A heat transfer system is arranged to cook multiple diverse food products. The heat transfer system includes at least one heat source. The at least one heat source is arranged within an enclosure and is operable by a controller to emit heat energy into the enclosure. First and second cooking conveyors are arranged within the enclosure. The first cooking conveyor is configured to move a first food product through the enclosure. The second cooking conveyor is configured to move a second food product through the enclosure. A speed of the first cooking conveyor and a speed of the second cooking conveyor are independently controlled to independently adjust the cooking time of the first food product and the second food product during operation of the heat transfer system.

Abstract: 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.

Abstract: A heat transfer system for cooking a food product is provided. The heat transfer system includes an enclosure, heat sources within the enclosure operate to output heat for a cooking process, at least one conveyor positioned relative to the cooking heat elements, and a warming assembly. The warming assembly is configured to receive at least one pan configured to store cooked food product. The warming assembly defines an controlled environment about the at least one pan. A blocking element defines an opening through the enclosure into the controlled environment of the warming assembly.

Abstract: A heat transfer system is arranged to cook multiple diverse food products. The heat transfer system includes at least one heat source. The at least one heat source is arranged within an enclosure and is operable by a controller to emit heat energy into the enclosure. First and second cooking conveyors are arranged within the enclosure. The first cooking conveyor is configured to move a first food product through the enclosure. The second cooking conveyor is configured to move a second food product through the enclosure. A speed of the first cooking conveyor and a speed of the second cooking conveyor are independently controlled to independently adjust the cooking time of the first food product and the second food product during operation of the heat transfer system.

Abstract: Food orders are divided into components or tasks. Systems and methods of food order preparation communicate instructions for automated actions to devices to carry out the automated actions. A toaster operates to toast a bun according to toaster settings. A bun magazine operates to deliver a bun into the toaster. A condiment dispenser receives the bun from the toaster and operates to dispense at least one portion of at least one condiment onto the bun.