F25C5/185

In door ice bin for an automatic ice maker

An ice maker assembly includes an ice maker that has a mounting plate that includes an engagement feature with an engagement surface. An ice storage bin is configured for insertion into an ice maker receiving space of the ice maker. The ice storage bin includes a retention surface configured to engage with the mounting plate when the ice storage bin is inserted into the ice maker receiving space and an ice bin base that defines a track system configured to move the ice storage bin both vertically and horizontally. The track system includes an elongate portion configured to move the ice storage bin horizontally and a widened portion configured to facilitate vertical movement of the ice storage bin.

Control logic for compact ice making system

An ice maker assembly is disposed in the ice compartment of a refrigerator, the ice maker assembly including an ice maker tray/evaporator having an evaporator cooling tube which is in direct contact with an ice maker tray portion, and a tray temperature sensor for sensing a temperature of the ice maker tray portion. A controller is configured to control ice making, ice harvesting, and ice maintenance based on the temperature sensed by the tray temperature sensor. The tray temperature sensor is the only temperature sensor used to control ice making, ice harvesting, and ice maintenance. Alternatively, an additional temperature sensor can be disposed inside an ice maker assembly gear box for sensing a temperature of a housing of the gear box. In that case, the tray temperature sensor and the additional temperature sensor are the only temperature sensors used to control ice making, ice harvesting, and ice maintenance.

Control logic for compact ice making system

An ice maker assembly is disposed in the ice compartment of a refrigerator, the ice maker assembly including an ice maker tray/evaporator having an evaporator cooling tube which is in direct contact with an ice maker tray portion, and a tray temperature sensor for sensing a temperature of the ice maker tray portion. A controller is configured to control ice making, ice harvesting, and ice maintenance based on the temperature sensed by the tray temperature sensor. The tray temperature sensor is the only temperature sensor used to control ice making, ice harvesting, and ice maintenance. Alternatively, an additional temperature sensor can be disposed inside an ice maker assembly gear box for sensing a temperature of a housing of the gear box. In that case, the tray temperature sensor and the additional temperature sensor are the only temperature sensors used to control ice making, ice harvesting, and ice maintenance.

Direct cooling ice maker with cooling system
11649999 · 2023-05-16 · ·

A refrigeration appliance includes a fresh food compartment for storing food items in a refrigerated environment having a target temperature above 0° C., a freezer compartment for storing food items in a sub-freezing environment having a target temperature below 0° C., a system evaporator for providing a cooling effect to at least one of the fresh food compartment and the freezer compartment, and an ice maker disposed within the fresh food compartment for freezing water into ice pieces. The ice maker includes an ice mold with an upper surface comprising a plurality of cavities formed therein for the ice pieces, a heater disposed on the ice mold and an ice maker refrigerant tube abutting at least one lateral side surface of the ice mold and cooling the ice mold to a temperature below 0° C. via thermal conduction.

Direct cooling ice maker with cooling system
11649999 · 2023-05-16 · ·

A refrigeration appliance includes a fresh food compartment for storing food items in a refrigerated environment having a target temperature above 0° C., a freezer compartment for storing food items in a sub-freezing environment having a target temperature below 0° C., a system evaporator for providing a cooling effect to at least one of the fresh food compartment and the freezer compartment, and an ice maker disposed within the fresh food compartment for freezing water into ice pieces. The ice maker includes an ice mold with an upper surface comprising a plurality of cavities formed therein for the ice pieces, a heater disposed on the ice mold and an ice maker refrigerant tube abutting at least one lateral side surface of the ice mold and cooling the ice mold to a temperature below 0° C. via thermal conduction.

REFRIGERATOR APPLIANCE ICE STORAGE BIN RETENTION

A refrigeration appliance includes an ice maker for freezing water into ice pieces. The ice maker (125) includes an ice maker housing (126), an ice making unit (156) for making the ice pieces, a removeable ice bin (135) receiving the ice pieces, and an ice dispenser having a rotatable auger (170) that drives the ice pieces out of the removable ice bin to a bin aperture (168) at the ice bin via a driving force applied in a first direction. A latching assembly is provided at least partially at each of the removeable ice bin and the ice maker housing, and is configured to apply a resisting force to the ice bin at least along a second direction opposite the first direction. The removable ice bin is selectively removable from the ice maker housing by the user applying a removal force greater than the driving force to the ice bin in the first direction.

METHOD AND APPARATUS FOR INCREASING RATE OF ICE PRODUCTION IN AN AUTOMATIC ICE MAKER

A refrigerator includes a cabinet defining an interior volume and a door for accessing the interior volume. An ice maker is disposed within the interior volume harvesting ice. The ice maker includes a frame and a motor. An ice tray includes a first end engaged with the motor, a second end engaged to the frame and a plurality ice wells defined by a plurality of weirs including first and second sets of weirs positioned proximate the first and second ends respectively, and interior weirs positioned therebetween. Each of the first and second sets of weirs and the internal weirs include a passage bifurcating each weir into first and second weir portions. Each of the passages defined by the first and second sets of weirs have a cross-sectional area that is greater than a cross-sectional area of any one of the passages defined by the internal weirs.

ICE-MAKING DEVICE FOR REFRIGERATOR AND REFRIGERATOR INCLUDING THE SAME
20170307273 · 2017-10-26 ·

A refrigerator having an ice-making device evaporator in addition to a refrigerator storage room evaporator. The ice-making device includes an ice tray and a cooling pipe contacting an outer surface of the ice tray. A refrigerant flows in the cooling pipe and directly cools the ice tray. The ice-making device evaporator receives the refrigerant from a condenser and supplies it to the cooling pipe. A heat insulation member wraps around the cooling pipe and can prevent the cooling pipe from exchanging heat with ambient air.

ICE MAKER AIR FLOW RIBS

A refrigeration appliance includes a freezer compartment for storing food items. An ice maker is disposed within the freezer compartment and includes a removable ice bin having an internal cavity. A front cover closes a front open end of the ice bin. The front cover includes a front face oriented toward a front of the freezer compartment, a rear face, and a recess formed in the rear face. The rear face of the front cover is disposed adjacent to a horizontal edge portion of the ice maker when the removable ice bin is disposed within the ice maker wherein the recess defines a gap between the front cover and the horizontal edge portion that fluidly communicates with the internal cavity of the removable ice bin. A plurality of ribs is disposed within the gap for directing air exiting the internal cavity of the removable ice bin into a predetermined direction.

ICE STORAGE UNIT

An ice storage unit including a housing defining an interior portion and a heat exchange engine disposed within the interior portion, the heat exchange engine defining a thermal exchange element extending therefrom. A thermally conductive coupling element defining an aperture is sized to receive the thermal exchange element therein. A thermally conductive reservoir is disposed proximate the thermally conductive coupling element.