Abstract: An insulation structure for an appliance includes a cabinet having an outer wrapper and an inner liner, with an insulating cavity defined therebetween. Insulating powder material is disposed substantially throughout the insulating cavity. An insulating gas is disposed within the insulating cavity, wherein the insulating powder material is combined with the insulating gas and cooperatively defines a suspended state and a precipitated state. The suspended state is defined by the insulating gas in motion and the insulating powder being in an aeolian suspension within the insulating gas while in motion. The precipitated state is defined by the insulating gas being in a deposition state and the insulating powder being precipitated from the insulating gas and deposited within the insulating cavity.

Abstract: A refrigerator includes a removable cooling module that defines a cavity. The removable cooling module includes a cooling unit and an ice maker disposed in the cavity. A duct is disposed inside the refrigerator and is in communication with the removable cooling module. The duct is adapted to convey cool air and ice from the ice maker to an ice storage bin in the refrigerator. An ice deflector is disposed in the duct. The ice deflector directs ice to the ice storage bin and directs cool air to a food storage area in the refrigerator.

Abstract: A refrigerator includes a cabinet having a top wall. At least one door is coupled with the cabinet and is moveable between an open position and a closed position. A removable cooling module is disposed on the top wall of the refrigerator. The removable cooling module includes a cooling unit and an ice maker. An ice dispenser is coupled with the refrigerator. A duct is in communication with the removable cooling module and is adapted to convey ice and cool air from the removable cooling module to the refrigerator.

Abstract: A refrigerator includes a cabinet having a top wall. At least one door is coupled with the cabinet and is moveable between an open position and a closed position. A removable cooling module is disposed on the top wall of the refrigerator. The removable cooling module includes a cooling unit and an ice maker. An ice dispenser is coupled with the refrigerator. A duct is in communication with the removable cooling module and is adapted to convey ice and cool air from the removable cooling module to the refrigerator.

Abstract: A refrigerator with a main supply fluid tank and a secondary reservoir supplied with fluid from the main supply fluid tank, with secondary reservoir having a maximum, controlled height of fluid. The refrigerator has an atomizer with fluid from the secondary reservoir which discharges the fluid provided from the secondary reservoir in an atomized spray to at least a portion of the refrigerator, and a flexible wick between the secondary reservoir and the atomizer and in fluid communication with both the secondary reservoir and the atomizer. Additionally, the atomizer has a piezo element located in a piezo reservoir to hold fluid next to the piezo element, wherein the piezo reservoir is provided with fluid from the secondary reservoir via the flexible wick.

Abstract: A method and system is provided which receives a desired humidity level from a user for the refrigeration compartment of a refrigerator, determines the current humidity level, and then activates an atomizer in the refrigeration compartment to increase the humidity level if needed. The humidity in the refrigeration compartment may be determined based at least in part on the temperature of the refrigeration compartment, the defrost timer, the door opening times, and the compressor timer.

Abstract: A method and system is provided which receives a desired humidity level from a user for the refrigeration compartment of a refrigerator, determines the current humidity level, and then activates an atomizer in the refrigeration compartment to increase the humidity level if needed. The humidity in the refrigeration compartment may be determined based at least in part on the temperature of the refrigeration compartment, the defrost timer, the door opening times, and the compressor timer.

Abstract: A refrigeration appliance comprises a freezer compartment in which air cooled by an evaporator is circulated by a fan and a thermoelectric device having a hot side in heat exchange relationship with the evaporator or with the freezer compartment and a cold side in heat exchange relationship with air within at least a portion of the freezer compartment in order to reduce temperature oscillations in the freezer compartment or in said portion thereof during evaporator defrost cycle.

Abstract: A refrigerator with a main supply fluid tank and a secondary reservoir supplied with fluid from the main supply fluid tank, with secondary reservoir having a maximum, controlled height of fluid. The refrigerator has an atomizer with fluid from the secondary reservoir which discharges the fluid provided from the secondary reservoir in an atomized spray to at least a portion of the refrigerator, and a flexible wick between the secondary reservoir and the atomizer and in fluid communication with both the secondary reservoir and the atomizer. Additionally, the atomizer has a piezo element located in a piezo reservoir to hold fluid next to the piezo element, wherein the piezo reservoir is provided with fluid from the secondary reservoir via the flexible wick.

Abstract: A removable cooling module for a refrigerator includes a cooling unit positioned in a housing and removably coupled with a top wall of the refrigerator. An ice maker is coupled to the cooling unit. An ice bin is disposed in the housing and is adapted to receive and store ice from the ice maker. A duct is in communication with the cooling unit and is adapted to convey ice from the removable cooling module to an ice dispenser.

Abstract: A refrigerator includes a cabinet having at least one door. A removable cooling module is coupled with an outer periphery of the cabinet. The removable cooling module includes an ice maker. A duct is in communication with the removable cooling module. Ice is produced by the ice maker and transferred through the duct to the refrigerator.

Abstract: A refrigerator includes a cabinet having a top wall. At least one door is coupled with the cabinet and is moveable between an open position and a closed position. A removable cooling module is disposed on the top wall of the refrigerator. The removable cooling module includes a cooling unit and an ice maker. An ice dispenser is coupled with the refrigerator. A duct is in communication with the removable cooling module and is adapted to convey ice and cool air from the removable cooling module to the refrigerator.

Abstract: A refrigerator includes a removable cooling module that defines a cavity. The removable cooling module includes a cooling unit and an ice maker disposed in the cavity. A duct is disposed inside the refrigerator and is in communication with the removable cooling module. The duct is adapted to convey cool air and ice from the ice maker to an ice storage bin in the refrigerator. An ice deflector is disposed in the duct. The ice deflector directs ice to the ice storage bin and directs cool air to a food storage area in the refrigerator.

Abstract: An atomization unit is described that employs a negative pressure actuator to reduce the fluid pressure acting on the atomizer in order to minimize or prevent fluid leakage from the atomizer. Methods of minimizing or preventing fluid leakage from an atomizer through use of a negative pressure actuator are also described. The atomization unit is particularly suitable for use in a refrigerator to cool and humidify at least a portion of the refrigerator.

Abstract: An atomization unit is described that employs a negative pressure actuator to reduce the fluid pressure acting on the atomizer in order to minimize or prevent fluid leakage from the atomizer. Methods of minimizing or preventing fluid leakage from an atomizer through use of a negative pressure actuator are also described. The atomization unit is particularly suitable for use in a refrigerator to cool and humidify at least a portion of the refrigerator.

Abstract: Certain embodiments of the presently described technology provide methods and systems for providing an atomized food preservation solution to food stored in a refrigerator. Certain embodiments provide an atomization unit for a refrigerator for humidifying at least a portion of the refrigerator. The atomization unit comprises an atomizer for atomizing and dispensing fluid to at least a portion of the refrigerator, a water supply for providing water to the atomizer, the water supply providing water along a fluid supply path to the atomizer, a food preservation solute dispenser located along the fluid supply path at a location where fluid will flow over the food preservation solute dispenser. The food preservation solute dispenser provides a food preservative to be dissolved in water along the fluid supply path as fluid flows over the food preservation solute dispenser.

Abstract: Certain embodiments of the presently described technology provide methods and systems for providing water for atomization in a refrigerator from a water source to an atomizer via a flexible wick. Certain embodiments provide a refrigerator for cooling and humidifying at least a portion of the refrigerator. The refrigerator includes a main supply fluid tank, a secondary reservoir supplied with fluid from the main supply fluid tank, an atomizer provided with fluid from the secondary reservoir, and a flexible wick for providing fluid transfer from the secondary reservoir to a location proximate to the atomizer. The secondary reservoir has a maximum, controlled height of fluid. The atomizer discharges the fluid provided form the secondary reservoir in an atomized spray to at least a portion of the refrigerator.

Abstract: A method and system is provided which receives a desired humidity level from a user for the refrigeration compartment of a refrigerator, determines the current humidity level, and then activates an atomizer in the refrigeration compartment to increase the humidity level if needed. The humidity in the refrigeration compartment may be determined based at least in part on the temperature of the refrigeration compartment, the defrost timer, the door opening times, and the compressor timer.

Abstract: Certain embodiments of the presently described technology provide methods for providing an atomized food preservation solution to food stored in a refrigerator. The methods include dissolving a soluble food preservative in water to form a food preservation solution and delivering the food preservation solution to an atomizer which atomizes the food preservation solution to distribute the solution to food stored in the refrigerator. Also, described are embodiments of a food preservation solute dispenser for use in the methods. The food preservation solute dispenser is adapted for placement along an atomizer fluid supply path at a location where fluid will flow over the food preservation solute dispenser. The food preservation solute dispenser provides a food preservative to be dissolved in water along the fluid supply path as fluid flows over the food preservation solute dispenser.