Abstract: A method for cooking is disclosed. In response to an oven being selected to cook a food item, a determination is made whether or not any oven is being engaged in cooking. If no oven is being engaged in cooking, then temperature-control mode is utilized to control oven temperature of the selected oven. If one oven is currently being engaged in cooking, then another determination is made whether or not the total current demand by the two ovens to cook respective food items exceeds a predetermined current limitation under temperature-control mode. If the total current demand does not exceed the predetermined current limitation, then temperature-control mode is utilized to control oven temperature of the two ovens. If the total current demand exceeds the predetermined current limitation, then time-control mode is utilized to control oven temperature of the two ovens.

Abstract: A modular cooking apparatus includes a first interchangeable cooking module containing an impingement oven, a second interchangeable cooking module containing a hot air oven with built-in magnetron, and a single power connection for receiving three-phase electrical power. Each oven has a base load and a boost load. A first multiplexor is configured to direct electrical power from a first phase pair of the three-phase electrical power to either the base load or the boost load of the first oven. A second multiplexor is configured to direct electrical power from the first phase pair to the boost load of the first oven or to the boost load of the second oven. The modular cooking apparatus is configured such that either the first multiplexor or the second multiplexor can direct electrical power from the first phase pair to the boost load of the first oven.

Abstract: A cleaning system for an oven having shelves which provide for distributed jets of heated air, allows water accumulation within the shelves during cleaning by reducing airflow through the shelf, and then provides rapid expulsion of the water in cohesive streams after accumulation to provide high inertial cleaning.

Abstract: A method for cooking is disclosed. In response to an oven being selected to cook a food item, a determination is made whether or not any oven is being engaged in cooking. If no oven is being engaged in cooking, then temperature-control mode is utilized to control oven temperature of the selected oven. If one oven is currently being engaged in cooking, then another determination is made whether or not the total current demand by the two ovens to cook respective food items exceeds a predetermined current limitation under temperature-control mode. If the total current demand does not exceed the predetermined current limitation, then temperature-control mode is utilized to control oven temperature of the two ovens. If the total current demand exceeds the predetermined current limitation, then time-control mode is utilized to control oven temperature of the two ovens.

Abstract: A modular cooking apparatus includes a first interchangeable cooking module containing an impingement oven, a second interchangeable cooking module containing a hot air oven with built-in magnetron, and a single power connection for receiving three-phase electrical power. Each oven has a base load and a boost load. A first multiplexor is configured to direct electrical power from a first phase pair of the three-phase electrical power to either the base load or the boost load of the first oven. A second multiplexor is configured to direct electrical power from the first phase pair to the boost load of the first oven or to the boost load of the second oven. The modular cooking apparatus is configured such that either the first multiplexor or the second multiplexor can direct electrical power from the first phase pair to the boost load of the first oven.

Abstract: A cleaning system for an oven having shelves which provide for distributed jets of heated air, allows water accumulation within the shelves during cleaning by reducing airflow through the shelf, and then provides rapid expulsion of the water in cohesive streams after accumulation to provide high inertial cleaning.

Abstract: A cleaning system for an oven having shelves which provide for distributed jets of heated air, allows water accumulation within the shelves during cleaning by reducing airflow through the shelf, and then provides rapid expulsion of the water in cohesive streams after accumulation to provide high inertial cleaning.

Abstract: A modular cooking apparatus is disclosed. The modular cooking apparatus includes a housing for containing a first and second interchangeable cooking modules. The first interchangeable cooking module contains a first oven, and the second interchangeable cooking module contains a second oven. The second oven is different from the first oven. The modular cooking apparatus also includes a control panel for receiving cooking inputs, a controller for controlling the first and second interchangeable cooking modules, and a single power plug for receiving electrical power from a wall outlet.

Abstract: A method for cooking is disclosed. In response to an oven being selected to cook a food item, a determination is made whether or not any oven is being engaged in cooking. If no oven is being engaged in cooking, then temperature-control mode is utilized to control oven temperature of the selected oven. If one oven is currently being engaged in cooking, then another determination is made whether or not the total current demand by the two ovens to cook respective food items exceeds a predetermined current limitation under temperature-control mode. If the total current demand does not exceed the predetermined current limitation, then temperature-control mode is utilized to control oven temperature of the two ovens. If the total current demand exceeds the predetermined current limitation, then time-control mode is utilized to control oven temperature of the two ovens.

Abstract: A modular cooking apparatus includes a first interchangeable cooking module containing an impingement oven, a second interchangeable cooking module containing a hot air oven with built-in magnetron, and a single power connection for receiving three-phase electrical power. Each oven has a base load and a boost load. A first multiplexor is configured to direct electrical power from a first phase pair of the three-phase electrical power to either the base load or the boost load of the first oven. A second multiplexor is configured to direct electrical power from the first phase pair to the boost load of the first oven or to the boost load of the second oven. The modular cooking apparatus is configured such that either the first multiplexor or the second multiplexor can direct electrical power from the first phase pair to the boost load of the first oven.

Abstract: A modular cooking apparatus is disclosed. The modular cooking apparatus includes a housing having a first interchangeable cooking module, a second interchangeable cooking module, and a single power connection for receiving electrical power from a wall outlet. The first interchangeable cooking module contains a first oven, and the second interchangeable cooking module contains a second oven. The second oven is a different oven type from the first oven. The modular cooking apparatus also includes a controller within the housing for controlling the first and second ovens. The controller includes a memory for storing a list of food items to be cooked within the modular cooking apparatus and a corresponding oven type for each of the food items. The modular cooking apparatus further includes a control panel on the housing for displaying only the food items for which the first oven or the second oven is a corresponding oven type.

Abstract: A multi cavity oven provides improved cavity and jet plate cleaning by directing pressurized cleaning spray into the jet plates while installed within the oven through cleaning spray inlet ports in the walls of the removable jet plates. By directing cleaning spray directly into the interior of the jet plates, cooking juices that fall through the slots and openings and into the air passageway of the jet plates can be pressure cleaned and drained from the interior of the jet plates without removing the jet plates from the oven cavity.

Abstract: A metal halide lamp (10) includes a discharge vessel (12) which may be formed of a ceramic material. The vessel defines an interior space (16). An ionizable fill (17) is disposed in the interior space. The ionizable fill includes an inert gas, mercury, and a halide component. The halide component includes an alkali metal halide, an alkaline earth metal halide component, and optionally at least one of a rare earth halide and a Group IIIA halide. The alkaline earth metal halide component includes at least one of a barium halide and a strontium halide. At least one electrode (18, 20) is positioned within the discharge vessel so as to energize the fill when an electric current is applied thereto. The lamp having a wall loading, when energized, which is sufficient to maintain an active tungsten halogen cycle.

Abstract: A metal halide lamp (10) includes a discharge vessel (12) which may be formed of a ceramic material. The vessel defines an interior space (16). An ionizable fill (17) is disposed in the interior space. The ionizable fill includes an inert gas, mercury, and a halide component. The halide component includes an alkali metal halide, an alkaline earth metal halide component, and optionally at least one of a rare earth halide and a Group IIIA halide. The alkaline earth metal halide component includes at least one of a barium halide and a strontium halide. At least one electrode (18, 20) is positioned within the discharge vessel so as to energize the fill when an electric current is applied thereto. The lamp having a wall loading, when energized, which is sufficient to maintain an active tungsten halogen cycle.