Abstract: A cooking appliance (200) including: a body (104) providing a floor (105) and a ceiling (110), with the floor (105) and ceiling (110) at least partly surrounding a cooking cavity (116), the body (104) having an opening via which product to be cooked can be moved in and out of the cooking appliance (200), the cavity (116) having a periphery at least partly surrounding a cooking area (117) adjacent the floor (105) to locate the product therein; a heating element (219) located in an upper portion of the cavity (116) to deliver radiant energy to cook the product; and a shield (232) integral to the heating element (219) and at least partly surrounding the heating element (219) to shield a portion of the cooking area (117) from the radiant energy.

Abstract: A cooking appliance (10) including: a body (12) with a front face; at least one projection (24, 26, 28) extending from the front face, and that is manipulated by a user to control the appliance (10); and an interface (30) releasably mounted on the front face adjacent the projection (24, 26, 28), the interface (30) being mountable in a first orientation or a second orientation, with the orientation to be selected by the user when mounting the interface (30) on the front face.

Abstract: A cooking appliance (100) including: a hollow body (102) having an interior (110) to receive a product to be cooked, the body (102) having an opening (112) via which product to be cooked can be moved relative to the interior (110); a door (114) attached to the body (102) and movable relative thereto between a closed position at which the door (114) closes the opening, and a maximum open position at which the door (114) is spaced from the open position by a maximum predetermined distance; and a latch mechanism (122) operatively associated with the body (102) and the door (114) to at least aid in retaining the door (114) in at least one intermediate position at which the door (114) is spaced from the closed position and the maximum open position, the mechanism (122) including an abutment member (142) fixed to the body (102), and a position defining member (124) attached to the door (114) and the body (102), the position defining member (124) having a plurality of position defining portions including a first por

Abstract: A cooking appliance (10) including: a body (12) with a front face; at least one projection (24, 26, 28) extending from the front face, and that is manipulated by a user to control the appliance (10); and an interface (30) releasably mounted on the front face adjacent the projection (24, 26, 28), the interface (30) being mountable in a first orientation or a second orientation, with the orientation to be selected by the user when mounting the interface (30) on the front face.

Abstract: A cooking appliance (100) including: a hollow body (102) having an interior (110) to receive a product to be cooked, the body (102) having an opening (112) via which product to be cooked can be moved relative to the interior (110); a door (114) attached to the body (102) and movable relative thereto between a closed position at which the door (114) closes the opening, and a maximum open position at which the door (114) is spaced from the open position by a maximum predetermined distance; and a latch mechanism (122) operatively associated with the body (102) and the door (114) to at least aid in retaining the door (114) in at least one intermediate position at which the door (114) is spaced from the closed position and the maximum open position, the mechanism (122) including an abutment member (142) fixed to the body (102), and a position defining member (124) attached to the door (114) and the body (102), the position defining member (124) having a plurality of position defining portions including a first por

Abstract: A cooking appliance (400) including: a body (402) providing a floor (404), a ceiling (406) and an intermediate wall (408) located between the floor (404) and ceiling (406), the floor (404), ceiling (406), and wall (408) at least partly surrounding a cooking cavity (410), the body (402) having an opening (412) via which product to be cooked can be moved relative to the cavity (410); a heating element (420) located in the cavity (410) to deliver radiant energy to cook the product; a cooling system (434) coupled to the body (402), the cooling system (434) including an airflow channel (436) communicating with a cold pin section (424) of the heating element (420), the airflow channel (436) configured to direct airflow to the cold pin section (424) to selectively cool the cold pin section (424); and a shield (444) positioned relative to the cold pin section (424) to shield the cavity (410) from at least a portion of the airflow.

Abstract: A cooking appliance (200) including: a body (104) providing a floor (105) and a ceiling (110), with the floor (105) and ceiling (110) at least partly surrounding a cooking cavity (116), the body (104) having an opening via which product to be cooked can be moved in and out of the cooking appliance (200), the cavity (116) having a periphery at least partly surrounding a cooking area (117) adjacent the floor (105) to locate the product therein; a heating element (219) located in an upper portion of the cavity (116) to deliver radiant energy to cook the product; and a shield (232) integral to the heating element (219) and at least partly surrounding the heating element (219) to shield a portion of the cooking area (117) from the radiant energy.

Abstract: There is disclosed a cooking appliance (2010) including: a body (2014) providing a floor (2016), a ceiling (2018) and an intermediate wall (2020) locating between the floor (2016) and ceiling (2018), the floor (2016), ceiling (2018), and wall (2020) at least partly surrounding a cooking cavity (2022), the body (2014) having an opening (2024) via which product to be cooked can be moved relative to the cavity (2022); at least one upper heating element (2030) located in an upper portion (2032) of the cavity (2022) to deliver radiant energy to cook the product; and at least one shield (2034) positioned relative to the element (2030) to shield a portion of the product from the radiant energy.

Abstract: A process for producing hydrogen gas by reacting steam with a gas mixture containing carbon monoxide, carbon dioxide and hydrogen to produce a hydrogen-enriched product gas and subjecting the product gas to pressure swing adsorption to produce a high purity hydrogen product and a hydrogen-depleted waste gas is improved by drying, where necessary, part of the gas mixture and subjecting the dry gas mixture to pressure swing adsorption using a carbon monoxide-selective adsorbent to produce a high purity carbon monoxide product gas and a carbon monoxide-depleted waste gas. Where the gas mixture is produced by endothermic reaction, one or both of the hydrogen-depleted waste gas and the carbon monoxide-depleted waste gas can be used as fuel to supply heat for the endothermic reaction.

Abstract: A method for the recovery of oxygen from air in which a high-temperature ion transport membrane system is integrated with combustion turbine system. Coproduction of oxygen and electric power is achieved in an alternative embodiment by integrating a combined cycle power generation system with an ion transport membrane system. The design performance of the gas turbine in the combined cycle system is maintained by controlled water injection into the membrane non-permeate stream, all or a portion of which optionally is introduced into the gas turbine combustor. Water can be introduced directly into the combustor air inlet. Alternatively, makeup air is added to the membrane feed to maintain the performance of the gas turbine. NOx formation is reduced by introducing the oxygen-depleted non-permeate from the membrane system to the gas turbine combustor.

Abstract: A direct ironmaking process in which coal and oxygen are used directly for reducing ore and smelting the resulting sponge iron wherein a high-temperature ion transport membrane process recovers oxygen for use in the ironmaking process. Heat for oxygen recovery is provided by combustion of medium-BTU fuel gas generated by the ironmaking process and/or by heat exchange with hot gas provided by the ironmaking process. The ironmaking and oxygen recovery processes can be integrated with a combined cycle power generation system to provide an efficient method for the production of iron, oxygen, and electric power.

Abstract: A heat exchanger or regenerator system useable in an air separation plant to minimize infiltration of air into the low pressure nitrogen stream comprising a heat exchanger (regenerator) having at least one flow path for the reversing heat exchange fluids, which flow path has at each end, an inlet branch and an outlet branch, wherein each branch has two series connected valves with a vent pipe between each pair of valves. Fluid flow through the vent pipe is controlled, e.g. by remotely actuable switch valves.