An automated cryogenic storage system includes a freezer and an automation system to provide automated transfer of samples to and from the freezer. The freezer includes a bearing and a drive shaft though the freezer, the drive shaft being coupled to a rack carrier inside the freezer and adapted to be coupled to a motor. The automation module includes a rack puller that is automatically positioned above an access port of the freezer. The rack puller engages with a sample rack within the freezer, and elevates the rack into an insulating sleeve external to the freezer. From the insulating sleeve, samples can be added to and removed from the sample rack before it is returned to the freezer.

Various aspects and embodiments of a temperature control cart (100) are disclosed. The temperature control cart (100) comprises a top portion (116) with one or more wells (202), wherein the one or more wells (202) is operable to receive one or more pans (102). The wells (202) are configured to hold pans (102), wherein the pans (102) often contain a payload, such as food or medicine, that requires temperature control. Further, the top portion (116) is disposed in a tank (108) that contains phase change material (PCM). In another aspect, a method for controlling temperature of a payload is disclosed. A temperature control cart (100) is further provided with one or more heat exchangers. Wherein the one or more heat exchangers circulate a heat exchange fluid, thereby heating or cooling the PCM disposed in the tank (108) of the temperature control cart (100) to above or below a transition temperature of the PCM.

A cooler allows easy attachment and detachment of a battery. The cooler includes a main container including a refrigeration compartment, an evaporator on the main container, a compressor and a condenser adjacent to the main container, and at least one battery mount to receive a power tool battery in a detachable manner. The at least one battery mount is adjacent to the main container and above the compressor and the condenser.

A portable beach cooler is capable of reducing the temperature of stored items. A main cooling body opens to reveal an ice tray. The ice tray may be connected to a lifting mechanism that allows the ice tray to rise for convenient user access to ice. The lid of the cooling body may have several cupholders traversing through the lid, providing direct access to ice for contained beverages. A cupholder adapter may support beverages atop the lid or may be inverted atop a beverage contained within the cupholder to provide direct beverage access to ice while simultaneously preventing cold air from escaping. A set of tracked wheels is connected to a motorized frame capable of supporting the cooling body. The apparatus may further be equipped with cameras to allow for automatic maneuvering of the motorized frame behind a user, as well as a variety of other electronic ports and devices.

The portable food storage and preparation device provides food storage and preparation facilities in a wheeled enclosure. The device has a portable power supply, a controller, a refrigerating module, a food heating module, and a beverage module. The refrigerating module is able to maintain food chilled either with chill packs or a refrigeration unit. The beverage module has a first water storage tank and a water heater, and water from the beverage module can be supplied to food being heated or cooked in the food heating module.

A portable cooler is disclosed herein. The portable cooler includes a cooler body portion, the cooler body portion defining an interior compartment configured to hold beverages and/or food items; and a cooler lid portion coupled to the cooler body portion, the cooler lid portion operable between open and closed states so as to allow a user to gain access to the beverages and/or food items in the interior compartment. In one or more embodiments, the portable cooler further includes a telescopic handle assembly pivotally coupled to the cooler body portion with an upper handle portion telescopically extendable from a lower handle portion. In one or more embodiments, the portable cooler further includes a solar panel disposed on the cooler lid portion, and an electrical power output device electrically coupled to the solar panel for transmitting electrical energy generated by the solar panel to an electrical device.

Disclosed is a cooling device (1), in particular for a galley of an aeroplane, comprising a cooling compartment (2) formed by inner walls (12, 13, 14, 15) of the cooling device, holding at least one refrigerated goods container (20), in particular a trolley, and further comprising a cooling air feed device (3) for introducing cooled air into the cooling compartment and a hot air discharge device (4) for discharging heated air (98) from the cooling compartment, wherein a primary flow channel is configured in use with the at least one refrigerated goods container (20) in the cooling compartment (2) between the inner walls (12, 13, 14, 15) of the cooling device and outer walls (22, 23, 24, 25) of the at least one refrigerated goods container (20), to guide a cooling air flow along a primary flow direction, deflected a plurality of limes through the arrangement of inner walls, from the cooling air feed device (3) around the at least one refrigerated goods container (20) to the hot air discharge device (4). According to the invention, the cooling air feed device (3) is configured to introduce the cooled air as jets into the primary flow channel along the primary flow direction (x), and in the cooling compartment (2) a secondary flow channel (9) is configured to return, as a secondary flow (9A), a portion (9A) of the cooling air flow guided through the primary flow channel around the at least one refrigerated goods container (20) into the primary flow channel for the purpose of mixing the introduced cooled air and forming a circulation flow (97) around the at least one refrigerated goods container (20) along the primary flow direction (x).

Disclosed is a beverage dispensing cooler. The beverage dispensing cooler includes a first lid, a second lid, a body, an axle, a handle and multiple hoses. The body includes a chamber, a panel, a base valve, a wall drain, a primary hose, a flow control unit, a power unit and a dispenser gun. The chamber includes multiple cylinders, multiple pressure compartments and a basin configured to collect water from condensation and melted ice. The axle further includes multiple wheels, a rod and multiple bearings connected to the rod and to the multiple wheels. The handle is configured to facilitate engagement of the beverage dispensing cooler with a hand of a user.

A refrigerator is provided that includes a crisper system having one or more moveable and removable drawers. The drawers include rollers extending downwardly and outwardly from the drawers to provide maximum storage volume. The rollers are configured to work with channels formed in a support system, which may be integrally formed with a bottom floor of a compartment of the refrigerator. Therefore, the rollers and channels of the support system provide easy access and removability of the drawers of the crisper system.

A refrigerated food storage box has been disclosed. This refrigerated food storage box has an inner box comprising a set of inner walls and an inner base, together enclosing a food storage compartment. There is also an outer box comprising a set of outer walls and an outer base, wherein each outer wall is located at a predetermined distance from a corresponding inner wall and the outer base is located at the predetermined distance from the inner base, thereby creating a thermal cavity between the inner box and the outer box. There is at least one plate-type heat exchanger located within the thermal cavity, wherein each plate-type heat exchanger having a hollow cavity therein. Note that the hollow cavity capable of receiving temperature controlled air from a refrigeration unit, thereby capable of altering the temperature inside the food storage compartment.