A stand-alone ice making appliance and method of operation is provided. The stand-alone ice making appliance may include a container defining a first storage volume for receipt of ice, a water storage volume in fluid communication with the container to receive water from the container, an ice maker, a pump, and an ultraviolet light source. The ice maker may include an auger at least partially surrounded by a casing. The casing may be in fluid communication with the water storage volume to receive water from the water storage volume. The ice maker may further include a sealed refrigeration system in thermal communication with the casing. The pump may be in fluid communication with water storage volume for actively flowing water from the water storage volume to the ice maker. The ultraviolet light source may face the water storage volume to selectively direct ultraviolet light into the water storage volume.

A low profile ice maker/dispenser and water dispenser having a high ice making capacity, for ice nugget manufacture is provided, wherein ice nuggets are metered out of a storage bin via a nugget dispenser outlet, and whereby water is dispensed via a water dispenser outlet. A refrigeration cycle is used, wherein an auger compresses ice on a wall of an evaporator and delivers the ice to the ice bin, breaking it into nuggets along the way. An outer wall of the evaporator is comprised of part of the water reservoir. A baffle in the ice bin facilitates metering of the amount of ice discharged. The system comprises a closed system that enables efficient cleaning of the system.

An ice maker apparatus is provided that may include a casing, an extruder die, an auger, a heat exchange body, and a fin portion. The casing may define a chamber about a central axis and extend along the central axis between a top portion and a bottom portion. The extruder die may be mounted to the casing at the top portion of the casing. The auger may be disposed within the chamber. The heat exchange body may be disposed in thermal engagement with the chamber. The heat exchange body may include a base wall extending along a portion of the casing and a sidewall extending outward from the base wall. The heat exchange body may also define an air duct across the base wall and sidewall. The fin portion may include a fin extending outward from the base wall. The fin may define a plurality of subchannels.

A stand-alone ice making appliance is provided. The stand-alone ice making appliance may include an outer casing, a water tank, a pump, an ice maker, and a container. The outer casing may define an internal cavity that includes a primary opening. The water tank may define a storage volume to receive water. The pump may be in fluid communication with the storage volume of the water tank to actively flow water therefrom. The ice maker may in fluid communication with the storage volume of the water tank to receive water therefrom. The container may be disposed within the internal cavity. The container may include an insulated sidewall positioned across the primary opening and at least partially defining a storage volume to receive ice from the ice maker.

A method for operating a fan of a nugget ice maker is provided. The method includes monitoring a speed of an auger of the nugget ice maker while a motor of the nugget ice maker rotates the auger and the fan of the nugget ice maker runs at a stored speed. A speed of the fan is increased when the speed of the auger stabilizes.

A filter for a non-plumbed appliance is provided. The filter includes a filter housing having a sidewall extending along a longitudinal direction between a first end wall and a second end wall. A flow distribution channel is also defined by the sidewall of the filter housing, the flow distribution channel extending outwardly from the sidewall along the radial direction and along the longitudinal direction between the flow aperture and the first end wall of the filter housing. The flow distribution channel equalizes the pressure gradient on the outer surface of the filter media, resulting in an improved flow pattern, increased clogging resistance, and improved filter performance capacity.

A filter for a non-plumbed appliance is provided. The filter includes a filter housing defining a filter chamber. A filter inlet and a filter outlet are positioned along a bottom portion of the filter housing, and filter media is positioned within the filter chamber to remove contaminants from water flowing through the filter media. A divider wall is positioned within the filter chamber to direct the flow of water through a flow aperture at a top portion of the filter chamber, such that the filter chamber remains filled with water during operation. As a result, the filter media remains completely submerged, thereby improving filtration performance, reducing pressure drop, and more evenly depleting the filter media.

A water switch assembly for a nugget ice making assembly is provided. The ice making assembly includes a hollow auger rotatably mounted within a reservoir and configured for extruding ice. The water switch assembly extends vertically through the center of the ice making auger and reservoir. The water switch assembly is in fluid communication with a water inlet and includes a float for measuring the water level. In this manner, the water switch assembly is configured to control the level of water within the reservoir.

A machine for making extruded ice obtained by passing a mass of ice in granules through an extrusion die (20) arranged at the end of a main cooled drum (4). The latter at one end has a flange (10) upon which a ring (14) clamping the die is fastened. Thus, screws for fastening the die to the main drum are not required, so that operations for the machine maintenance and for replacing the die are considerably facilitated.

A method for operating a fan of a nugget ice maker is provided. The method includes monitoring a speed of an auger of the nugget ice maker while a motor of the nugget ice maker rotates the auger and the fan of the nugget ice maker runs at a stored speed. A speed of the fan is increased when the speed of the auger stabilizes.