Abstract: A support apparatus for a person includes a main cushion having a bottom surface, a top surface to form a support surface for a person supported on the main cushion, and a length having a perimeter that has longitudinal and lateral sides extending around the perimeter. In addition, the support apparatus has at least one sleeve located along one of the sides of the man cushion. The sleeve is configured between a stowed state, where the sleeve is closely adjacent to the one side, and a deployed state, where the sleeve forms an extension of the top surface of the main cushion to thereby increase the width or the length of the support surface.

Abstract: A support apparatus for a person includes a main cushion having a bottom surface, a top surface to form a support surface for a person supported on the main cushion, and a length having a perimeter that has longitudinal and lateral sides extending around the perimeter. In addition, the support apparatus has at least one sleeve located along one of the sides of the man cushion. The sleeve is configured between a stowed state, where the sleeve is closely adjacent to the one side, and a deployed state, where the sleeve forms an extension of the top surface of the main cushion to thereby increase the width or the length of the support surface.

Abstract: A support apparatus for a person includes a main cushion having a bottom surface, a top surface to form a support surface for a person supported on the main cushion, and a length having a perimeter that has longitudinal and lateral sides extending around the perimeter. In addition, the support apparatus has at least one sleeve located along one of the sides of the man cushion. The sleeve is configured between a stowed state, where the sleeve is closely adjacent to the one side, and a deployed state, where the sleeve forms an extension of the top surface of the main cushion to thereby increase the width or the length of the support surface.

Abstract: A system for recovering floating oil from the surface of a body of water includes a sump vertically movably mounted between a pair of spaced interconnected floating pontoons. A hydraulic system is coupled to the sump for lowering the sump into the water below the pontoons to a predetermined depth. The forward wall of the sump is angled down and back from an upper edge and a blade is hingedly attached along the upper edge of the forward wall. In use, the sump is lowered into the water until the blade is at the proper slice depth to separate floating oil from the surface of the water as the pontoons are drawn through an oil spill in a forward direction. The separated oil is deposited immediately onto the angled forward wall where gravity causes it to accelerate downwardly along the angled wall. This “gravity drop” tends to pull or urge additional oil across the blade and onto the angled forward wall to enhance the separation of floating oil from the surface of the water.

Abstract: A chemical delivery assembly includes a volatilizable chemical member and a housing member. The volatilizable chemical member includes a volatilizable chemical. The housing member carries the volatilizable chemical member and is configured for being carried by and coupled with an appliance having an electrical supply and/or an appliance element used to controllably emit a volatilized chemical from the volatilizable chemical.

Abstract: A chemical heating assembly includes a face plate, a chemical packet, a housing, a pair of electrical prongs carried by the housing, and a light assembly. The housing includes a first sliding arrangement and a first snap-fit arrangement, is connected to the face plate, and at least partially defines a pocket for the chemical packet. The light assembly includes a lamp, a second sliding arrangement engaged with the first sliding arrangement, and a second snap-fit arrangement coupled with the first snap-fit arrangement. The light assembly is mechanically connected to the housing and electrically connected with the pair of electrical prongs using the first and second sliding arrangements and the first and second snap-fit arrangements.

Abstract: A chemical heating assembly includes a face plate, a chemical packet, a housing, a pair of electrical prongs carried by the housing, and a light assembly. The housing includes a first sliding arrangement and a first snap-fit arrangement, is connected to the face plate, and at least partially defines a pocket for the chemical packet. The light assembly includes a lamp, a second sliding arrangement engaged with the first sliding arrangement, and a second snap-fit arrangement coupled with the first snap-fit arrangement. The light assembly is mechanically connected to the housing and electrically connected with the pair of electrical prongs using the first and second sliding arrangements and the first and second snap-fit arrangements.

Abstract: A vaporization device including a housing, a plurality of wicks, a plurality of heating elements and a power control circuit. The plurality of wicks are at least partially contained within the housing and include a first wick and a second wick. The plurality of heating elements include a first heating element and a second heating element. The first heating element is proximate to the first wick and the second heating element is proximate to the second wick. The power control circuit powers the first heating element at a first level when the second heating element is not powered. The power control circuit powers the first heating element at a second level when the second heating element is powered.

Abstract: An appliance assembly includes an appliance and a chemical delivery assembly. The appliance includes an electrical supply and/or an appliance element. The chemical delivery assembly includes a volatilizable chemical and is carried by and coupled with the appliance. The appliance assembly uses the electrical supply and/or the appliance element to controllably emit a volatilized chemical from the volatilizable chemical.

Abstract: A vaporization device including a housing, a container, a wick, a heating element and an adjustment mechanism. The wick is fixed to the container and extends therefrom. The heating element is positioned in the housing proximate a portion of the wick. The adjustment mechanism interconnects the container with the housing.

Abstract: A vaporization device including a housing, a wick, at least one heating element and a rotational coupling. The wick is partially contained within the housing and extends from the housing. The at least one heating element being proximate the wick. The rotational coupling interconnects the heating element with the housing.

Abstract: An electrically heated chemical delivery system including a heat sensitive chemical and an electrical heater adjacent to the heat sensitive chemical. The heater includes a heater element with a first heater side and a second heater side and a flexible printed circuit in electrical contact with both the first heater side and the second heater side. The flexible printed circuit includes at least one fold allowing electrical contact with both the first heater side and the second heater side.

Abstract: An electrically heated chemical delivery system including a heat sensitive chemical and an electrical heater adjacent to the heat sensitive chemical. The heater includes a heater element with a first heater side and a second heater side and a flexible printed circuit in electrical contact with both the first heater side and the second heater side. The flexible printed circuit includes at least one fold allowing electrical contact with both the first heater side and the second heater side.

Abstract: A heated chemical delivery system with an electrical plug-in, a heater electrically connected to the electrical plug-in and a housing connected to both the electrical plug-in and the heater. The housing includes a plurality of sides and a plurality of side openings with each side opening associated with a respective side. At least two of the side openings have different cross-sectional configurations corresponding to different chemical packets to be received therein.

Abstract: An ice maker includes a mold having at least one cavity configured for containing water therein for freezing into ice. An auger extends substantially vertically through the at least one mold cavity. The auger is configured for rotating to thereby push the ice out of the at least one mold cavity. A temperature sensor is positioned in association with the mold for sensing a temperature of the mold. A heat transfer member is metallurgically coupled with the auger and extends downwardly from the mold.

Abstract: An electrically heated chemical delivery system including a heat sensitive chemical and an electrical heater adjacent to the heat sensitive chemical. The heater includes a heater element with a first heater side and a second heater side and a flexible printed circuit in electrical contact with both the first heater side and the second heater side. The flexible printed circuit includes at least one fold allowing electrical contact with both the first heater side and the second heater side.

Abstract: A heated chemical delivery system with an electrical plug-in, a heater electrically connected to the electrical plug-in and a housing connected to both the electrical plug-in and the heater. The housing includes a plurality of sides and a plurality of side openings with each side opening associated with a respective side. At least two of the side openings have different cross-sectional configurations corresponding to different chemical packets to be received therein.

Abstract: A method of making ice in an automatic ice maker includes the steps of: providing a mold including one cavity; filling the at least one mold cavity at least partially with water; providing an ice removal device at least partly within the at least one mold cavity; coupling a mechanical drive with the ice removal device; coupling a controller with the drive; measuring a temperature of the mold; measuring an ambient temperature associated with the mold; and controlling operation of the drive using the controller, dependent upon the measured temperature of the mold and the measured ambient pressure.

Abstract: An ice maker includes a mold with least one cavity for containing water therein for freezing into ice. A temperature sensor is positioned in association with the mold and provides an output signal. An auger is positioned partly within the at least one mold cavity. A mechanical drive rotatably drives the auger. A controller is coupled with the sensor and the drive, and controls operation of the drive depending upon the output signal from the sensor.

Abstract: An ice maker includes a mold with at least one cavity for containing water therein for freezing into ice. Each cavity has a plurality of side walls. An ice removal device is positioned at least partly within the at least one mold cavity. A fill tube is positioned in association with the at least one mold cavity. The fill tube includes an outlet from which water is expelled at an impingement angle against at least one side wall of at least one mold cavity. The impingement angle is between about 10° and 60° relative to a horizontal reference.