The in-wall chiller may include a housing having a size and shape, including a depth of approximately 3.5 inches and a width of approximately 14.5 inches, conductive for installation in a standard size wall frame. The in-wall chiller may further include one or more cooling modules disposed in the housing, which may include a chilling plate coupled to one side of a Peltier chip and a heat sink coupled to the other side, wherein the relatively low temperature transferred to the chilling plate cools water within the in-wall chiller, which may be stored for an extended duration within an insulated storage tank; the heat extracted from the cooled water being transferred to the heat sink and dissipated out from the in-wall chiller by a fan mounted thereon.

The present disclosure discloses a liquid cooler having separable and portable components. The liquid cooler has a liquid cooling section and a refrigerating system section. In an operative liquid cooling configuration, the components present in the liquid cooling section and the refrigerating system section are connected with each other with a first and second releasing coupler. In an operative defrosting configuration, the components of present in the liquid cooling section and the refrigerating system section are separated with each other by releasing the first and second releasing coupler and hence are easily portable. The separated liquid cooling section and the refrigerating system section enables easy periodic maintenance or replacement of faulty components in less time, labor and cost. Further, the liquid cooler is powered by power received from power mains or by power storage device such as battery.

A dispenser for dispensing milk from a bulk container. The dispenser is mounted outside of a refrigerator and the bulk container is stored within the refrigerator. The dispenser is provided with means for conveying the milk from the bulk container to a pouring spout. Several bulk containers may be connected together to form a large bulk container of milk that is kept refrigerated in its entirety.

A mixed beverage production appliance has a first container which is configured for receiving a first fluid having a first freezing point and is able to be added to a mixed beverage and a second container which is separate therefrom and which is configured for receiving a second fluid having a second freezing point which is different from the first freezing point and which is able to be added to a mixed beverage. The two containers are connected into a refrigerating circuit of the mixed beverage production appliance which is configured such that the two containers are able to be subjected to different temperatures independently of one another.

A potable beverage temperature control device including a cooling plate, a first vessel, and a second vessel. Where the cooling plate includes a body, a plate coupled to the body, the plate having an upper surface, a leading edge, and a trailing edge opposite the leading edge, a refrigeration device in fluid communication with the plate and configured to change the temperature of the upper surface of the plate, and a controller in operable communication with the refrigeration device. The temperature control device also includes a first vessel having one or more nozzles in fluid communication with a reservoir configured to dispense the beverage on the upper surface of the plate proximate the leading edge. The temperature control device also includes a second vessel configured to receive beverage flowing off the trailing edge of the plate.

An improved liquid vessel cooling system for cooling, transporting and dispensing liquid comprises a base assembly having a base housing enclosing a refrigeration unit and having a top surface and a bottom surface, the top surface attached to a thermally conductive support base snugly encircled by a plurality of evaporator coils. In alternate embodiments the evaporator coils may be incorporated within the support base structure or the support base structure may be constructed with cavities and passages such that the support base structure itself functions as the plurality of evaporator coils. A container containing the liquid is attached to the support base and comprises a top portion, a bottom portion and a spear that extends inside the container from the top portion to proximate the bottom portion. An insulation sleeve is removably positioned over the container through a first opening at a middle portion thereof. The insulation sleeve includes a second opening at a bottom portion to fill with an insulating material.

A food dispensing system (1) including a graphite-based compound (6) that increases the heat transfer between a food storage compartment (3) and adjacent pipes (4), which may contain a propylene glycol fluid, for cooling the food product stored within the storage compartment (3). To assist with the production of a frozen food product, the system (1) may include a freezing chamber (16) adjoined via graphite-based compound (6) to pipes (23) adapted to freeze the food product. A heating chamber (26) may also be adjoined via graphite-based compound (6) to piping (28) adapted to heat the food product stored within the heating chamber (26). A controller (31) may adjust the temperature of the fluids within the pipes (4, 23, 28) to store the food products at desired temperatures.

A portable water cooler including a cooler housing having guides for expeditiously receiving a water jug and ice to surround the water jug after it is received within the housing. A cooler lid can be removably coupled to the cooler housing after receiving the water jug and ice. A water dispensing faucet is sealed to the received water jug to provide a sealed environment.

A machine and process for providing consumer products may include a set of positions configured to contain consumer products or containers in which ingredients are used to form consumer products. The consumer products or containers may include radiofrequency identification (RFID) tags. A set of antennas, where at least one antenna is disposed at each position, may be configured to output and receive RF signals. A transceiver may be in electrical communication with the antennas, and be configured to generate the RF signals. A processor may be in communication with the transceiver, and be programmed to (i) receive RFID signals from the RFID tags at the set of positions, and (ii) identify locations of the RFID tags to determine that corresponding consumer products or containers of ingredients are in correct positions.

An ice-generating system (311), method and apparatus for preparing an ice-containing tea or coffee beverage, comprising a product conduit (330) formed as a loop for circulating there through a beverage liquor, a product pump (390) for pumping the beverage liquor around the loop of the product conduit and a cooling conduit (331) for flowing there through a coolant. The cooling conduit is arranged in proximity with the product conduit to permit heat exchange between the coolant in the cooling conduit and the beverage liquor in the product conduit to cool the beverage liquor to thereby form a plurality of ice crystals within the beverage liquor. The product conduit comprises an outlet (393) for discharging the beverage liquor containing the plurality of ice crystals from the product conduit towards a beverage dispensing outlet (303) and two or more beverage liquor inlets (394, 395) for inputting beverage liquor into the product conduit.