Abstract: A secondary loop temperature control circuit for a temperature-controlled region in a compartment of a refrigerator is shown. The secondary loop temperature control circuit has a reservoir, configured to have a medium flow there through. A first heat exchanger is in flow communication with the reservoir and is configured to have the medium flow there through. The first heat exchanger is in thermal communication with the temperature-controlled region.

Abstract: A method and apparatus for circulating air within an icemaker compartment of a refrigerator are disclosed. The method includes the steps of activating the icemaker, filling the ice cavities with water, and activating the fan after a predetermined time after the ice cavities are filled with water. The apparatus includes a food storage compartment, an access door operable to selectively close the food storage compartment, an icemaker compartment on the access door, an icemaker disposed in the icemaker compartment, the icemaker including an ice mold body defining a plurality of ice cavities, an ice storage bin disposed in the icemaker compartment, a fan for distributing cold air within the icemaker compartment, at least one heating element attached to the ice mold body, a coolant pump, and a controller for regulating the fan and the coolant pump.

Abstract: An icemaker having a mold comprising at least one cavity and a cooling system. The cooling system has a first heat exchanger configured to have a medium flow there through. The first heat exchanger is in thermal communication with the mold to reduce the temperature of the mold below a predetermined temperature.

Abstract: An ice producing apparatus for a refrigerator is disclosed. The apparatus includes a door configured to permit and prohibit access to an interior volume of a storage compartment of the refrigerator, the door defining therein a door interior volume; a fan disposed in the door interior volume; and a mold disposed in the door interior volume and configured to receive water and to retain the water during freezing of the water into ice.

Abstract: Disclosed herein is a method of using megestrol acetate. In one embodiment, the method comprises informing a user that megestrol acetate is metabolized by a cytochrome p450 isozyme. In another embodiment, the method comprises obtaining megestrol acetate from a container associated with published material providing information is metabolized by a cytochrome p450 isozyme. Also disclosed are articles of manufacture comprising a container containing a dosage form of megestrol acetate, wherein the container is associated with published material informing that megestrol acetate is metabolized by a cytochrome p450 isozyme, a method of treatment, and a method of manufacturing a megestrol acetate product.

Abstract: A method of controlling temperature for forming ice within an icemaker compartment of a refrigerator is disclosed. The method includes the steps of activating at least one of the compressor and the coolant pump during an icemaking cycle to provide cooling to the icemaker compartment sufficient to make ice at a first rate, and increasing operation of at least one of the compressor and the coolant pump to provide cooling to the icemaker compartment sufficient to make ice at a second rate, which is faster than the first rate. A related refrigerator is also disclosed.

Abstract: An in-door fluid drainage system for a refrigerator is disclosed. The drain fluid transfer system is described as extending from the door of a refrigerator to the lower compartment for transfer of drain fluid from the door to a drain fluid removal system. Also described is a drain fluid transfer system which comprises one or both of a transfer tube at least partially enclosed in a hinge assembly, and a valve assembly positioned at the lower portion of the door.

Abstract: A method and apparatus for circulating air within an icemaker compartment of a refrigerator are disclosed. The method includes the steps of activating the icemaker, filling the ice cavities with water, and activating the fan after a predetermined time after the ice cavities are filled with water. The apparatus includes a food storage compartment, an access door operable to selectively close the food storage compartment, an icemaker compartment on the access door, an icemaker disposed in the icemaker compartment, the icemaker including an ice mold body defining a plurality of ice cavities, an ice storage bin disposed in the icemaker compartment, a fan for distributing cold air within the icemaker compartment, at least one heating element attached to the ice mold body, a coolant pump, and a controller for regulating the fan and the coolant pump.

Abstract: An automatic icemaker for a refrigerator is disclosed. The automatic icemaker includes an ice mold body having a front side, a back side, and a plurality of ice chambers for containing water therein for freezing into ice cubes, each ice chamber having a top opening having a frontal portion adjacent the front side; an ice stripper disposed along the front side and extending over the ice chambers, the ice stripper being configured to completely cover the frontal portion of the top opening of each ice chamber; and an ice rake disposed between the front side and the back side, the ice rake including a rotatable shaft, and a plurality of rake fingers extending outward from the shaft for moving ice cubes out of the respective ice chambers and onto the ice stripper.

Abstract: A method for cooling an icemaker is disclosed. The icemaker includes an ice mold body having a channel for transport of coolant and a plurality of ice cavities. The method includes the steps of injecting a coolant into the channel, adding water to the ice cavities, forming ice cubes in the ice cavities, removing coolant from the channel, heating the ice mold body, and ejecting the ice cubes from the ice mold body. The removal step is performed by reversing direction of a coolant pump.

Abstract: A hinge assembly and a refrigerator using the assembly are disclosed. The assembly rotatably mounts an access door for a compartment of the refrigerator to part of refrigerator that defines the compartment. The hinge assembly has a body coupled to the part and a hinge manifold supported by the body and slidably received in the access door. The manifold has a first supply conduit for supplying a working medium to an icemaker disposed in the access door and a first return conduit for returning the working medium from the icemaker. The hinge assembly can be manufactured as a separate module to be assembled with the refrigerator or retrofit into an existing refrigerator.

Abstract: A refrigerator includes a housing having at least one refrigerator compartment, a door for accessing the at least one refrigerator compartment, and an ice-dispensing assembly. The ice-dispensing assembly includes an insulated housing arranged within the at least one refrigerator compartment, an ice-making device arranged within the insulated housing and configured to produce ice, an ice-storage container arranged within the insulated housing, and a dispenser arranged within the door and communicating with the ice-storage container, wherein the dispenser is configured to transfer ice from the ice-storage container to an external portion of the refrigerator.

Abstract: An ice producing apparatus for a refrigerator is disclosed. The apparatus includes a door configured to permit and prohibit access to an interior volume of a storage compartment of the refrigerator, the door defining therein a door interior volume; a fan disposed in the door interior volume; and a mold disposed in the door interior volume and configured to receive water and to retain the water during freezing of the water into ice.

Abstract: A method of forming ice in a refrigerator is disclosed. The method includes cooling a first storage compartment to a first temperature, cooling a second storage compartment to a second temperature, cooling an interior volume defined in a door to a third temperature, wherein the door permits and impedes access to the second storage compartment, operating a fan disposed in the interior volume to circulate cool air through the interior volume, and cooling water to form ice in the interior volume.

Abstract: An ice dispenser having a safety apparatus is disclosed. The ice dispenser includes a bin for storing ice to be dispensed; a chute in communication with the bin; a device for at least one of crushing the ice and moving the ice from the bin to the chute; a controller for activating the device in response to a dispensing signal; and a safety apparatus configured to determine a presence of an object in the chute and to provide an indication responsive to the determined presence to the controller. The controller deactivates the device after receiving the indication. A refrigerator incorporating such an ice dispenser is also disclosed.

Abstract: A refrigerator includes a first storage compartment defining a first interior volume. A first evaporator is disposed in a first evaporator compartment and is configured to provide cool air to the first interior volume. A second storage compartment defines a second interior volume, the second interior volume configured to be cooled by cool air received from the first interior volume. A door is positionable to permit and prohibit access to the second interior volume through a front of the second interior volume. A third interior volume is defined in an interior of the door. A second evaporator is disposed in a second evaporator compartment and is configured to provide cool air to the third interior volume. An air flow channel extends from the second evaporator compartment to the third interior volume. A fan is disposed in the third interior volume. A mold is disposed in the third interior volume and is configured to receive water and to retain the water during cooling of the water.

Abstract: An ice harvester has an ice cube tray having at least two compartments for holding ice cubes; a rotating member used to remove ice cubes from the ice cube tray; at least two arms extending from the rotary member for removing ice cubes from the ice cube tray; a motor coupled to the rotary member for powering rotation of the member; and a divider wall formed in the ice cube tray extending vertically between the arms having an edge, wherein the arms are rotated toward the edge to remove ice cubes from said tray, and wherein the edge breaks a web formed between adjacent ice cubes in the tray during rotation of the arms. The arms can be offset from each other along a circumference of the sweeping member. The edge of the divider wall can have ramped portions to facilitate the breaking apart of the cubes to reduce required motor torque.

Abstract: In an embodiment of the present invention, a refrigerator with an ice dispenser is shown. The ice dispenser has a user dispense panel. The user dispense panel comprises a dispense control and an ice outlet. A ice storage compartment defines a first interior volume. An ice chute flow connects the ice storage compartment and the ice outlet. The chute comprises a first end in flow communication with the ice storage compartment and a second end in flow communication with the ice outlet. A member is configured between the first and second ends. The member comprises an interior volume in flow communication with the first and second ends. A flow axis is formed from the first end to the second end. The member has a restriction.

Abstract: An icemaker having a mold comprising at least one cavity and a cooling system. The cooling system has a first heat exchanger configured to have a medium flow there through. The first heat exchanger is in thermal communication with the mold to reduce the temperature of the mold below a predetermined temperature.

Abstract: A secondary loop temperature control circuit for a temperature-controlled region in a compartment of a refrigerator is shown. The secondary loop temperature control circuit has a reservoir, configured to have a medium flow there through. A first heat exchanger is in flow communication with the reservoir and is configured to have the medium flow there through. The first heat exchanger is in thermal communication with the temperature-controlled region.