A refrigerator comprising a refrigerator body provided with a refrigerating compartment, an ice maker, an ice-making air duct, a first fan assembly disposed in the ice-making air duct and an ice maker evaporator is disclosed. The ice-making air duct comprises an air inlet duct and an air return duct, which are both disposed in a foaming layer of the refrigerating compartment, and one ends thereof close to the ice maker extend into a foaming layer on a door body of the ice maker. The first fan assembly is detachably disposed in the air return duct, and may be integrally disassembled from and installed in the air return duct. The ice maker evaporator is disposed between the air inlet duct and the air return duct and at the side far away from the ice maker.

A system for a portable cooling device is disclosed herein. The portable cooling device comprises a housing and a door with a handle coupled to the housing for providing access to the interior of the housing. The door and housing are insulated. At least one fan is provided in the interior of housing. In an embodiment, a plurality of fans are configured on each surface defining the interior of the housing. A cooling medium source is in fluid communication with the housing. The cooling medium source is configured to release a cooling medium in the interior of the housing for cooling an edible item or beverage placed in the interior of the housing. The portable cooling device can be powered through solar means or through traditional electrical means. The power is necessary to operate the fans and the cooling medium source.

Methods and systems for an energy efficient MTRS are provided. In one embodiment, a refrigerated transport unit is provided that includes a multi-zone transport unit and an energy efficient MTRS. The multi-zone transport unit includes an internal space separated into a first zone and a second zone. The internal space includes a zone separator separating and thermally isolating the first zone and the second zone. The energy efficient MTRS is configured to control and maintain a separate environmental condition requirement of each of the first zone and the second zone. The energy efficient MTRS includes a remote fan unit provided between the first zone and the second zone. The remote fan unit is configured to provide a heat exchange between the first zone and the second zone for providing climate control within the second zone.

A blast cell system is provided with simple and scalable designs that prevent short cycling of air flow through any pallets in blast cells. The blast cell includes a plurality of suction channels that provide independent fluid pathways for directing the air drawn from different rows in the blast cell into the fan.

A controller, when a normal cooling operation is being performed, forward-drives a lower-side and an upper-side in-box blower fans, thereby causing internal air cooled by an evaporator to circulate within a commodity storage box in such a way that it enters a rear face duct through a lower-side opening and is discharged from an upper-side opening, and when a cold-maintaining operation is being performed, stops driving the lower-side and the upper-side in-box blower fans, and when a cooling recovery operation is being performed, forward-drives the lower-side in-box blower fan and reverse-drives the upper-side in-box blower fan, thereby causing internal air cooled by the evaporator to enter the rear face duct through the lower-side opening and causing internal air to enter the rear face duct through the upper-side opening, and also causing internal air entered the rear face duct to be discharged from the intermediate opening.

A refrigerated storage unit 1 includes: a refrigeration chamber S2, a refrigeration part 3 for cooling air inside the refrigeration chamber S2, a fan 4 for sending cold air cooled by the refrigeration part 3 into the refrigeration chamber S2, a temperature sensor 5 for detecting a temperature inside the refrigeration chamber S2, an infrared sensor 8 for detecting a temperature of a content provided inside the refrigeration chamber S2, and a control part 7 for controlling driving of the fan based on a result detected by at least one of the temperature sensor 5 and the infrared sensor 8.

A cooling device including a liner defining a freezer compartment, a shelf positioned within the freezer compartment, and an ice maker assembly secured to the shelf. The ice maker assembly including an ice maker configured to produce ice pieces, and an ice maker support frame that supports the ice maker. The ice maker support frame includes a fill cup and an air plenum, the air plenum defining a channel therein and extends between first and second walls of the ice maker support frame. A fan is disposed adjacent the ice maker frame at a location corresponding to the air plenum. The fill cup is configured to receive water from a water fill tube and direct the water to an ice tray of the ice maker.

Disclosed is a refrigerator including a temperature controlled room with improved utilization of space because no component for cooling or heating is positioned inside a temperature controlled room. The refrigerator includes a cabinet; a storage room provided inside the cabinet; a temperature controlled room positioned inside the storage room and being at inside temperature which is independent from inside temperature of the storage room; a cool air flow path guiding cool air generated inside the cabinet to inside of the storage room; a first fan positioned on the cool air flow path to supply the cool air to the storage room; a cool air supplier forming at least one portion of the cool air flow path and including a second fan to supply the cool air to the temperature controlled room; and a heating portion configured to heat air to supply hot air to inside of the temperature controlled room.

In one instance, a cooling unit for cooling a refrigerated room includes a fan base and a fan guard that both twist and rotate to change pitch thereby allowing the cooling unit air to be directed in many directions as desired. The fan base has a flange portion and a conduit portion. The conduit portion of the fan base mates with an opening in a conduit member of the fan guard. The opening in the fan guard is sized and configured to form an interference fit with at least a portion of a conduit portion of the fan base while allowing rotation of the fan guard relative to the fan base about the longitudinal axis. The second longitudinal end of the fan-guard conduit member is at least partially angled to allow the rotation about a lateral axis in order to pitch the direction of the grill front wall.

A storage system for a house entrance includes an entrance refrigerator, a storage placed at a rear of the entrance refrigerator, and a blocking plate covering a gap formed between the entrance refrigerator and the storage. An intake hole is provided at a lower portion of the blocking plate and a discharge hole is provided at an upper portion of the blocking plate.