A refrigerator includes an outer case, an inner case configured to define a storage space, an insulation material between the outer case and the inner case, a tank provided inside the storage space to store liquid, a rear guide provided at a rear through which a supply tube configured to supply liquid to the tank passes, a dispenser provided inside of the storage space to dispense liquid from the tank, and a tube guide embedded in the insulation material between the inner case and the outer case to define a passage through which a discharge tube configured to connect the tank to the dispenser passes.

A removable liquid transport assembly configured to be readily installed in and removed from a liquid dispenser to permit the liquid dispenser to be readily sanitized. The removable liquid transport assembly preferably includes a liquid manifold, a valve assembly and a pump head. The removable liquid transport assembly is configured such that liquid can flow in a first direction through the removable liquid transport assembly to permit a liquid to be dispensed from a liquid dispenser and liquid can flow in a second direction back to a liquid storage container to prevent damage to one or more components of the liquid dispenser.

An adapter (9) for connecting a removable liquid container (10) to a liquid dispenser (1), said adapter having at a first end thereof a liquid container connector and at a second end thereof a dispenser connector, said liquid container connector having a probe part (12) adapted to pierce an outlet comprising a self-sealing valve or membrane of said removable liquid container (10), said probe part (12) being hollow and having at least one inlet for liquid from said removable liquid container, said dispenser connector being hollow and having at its end remote from said probe part an outlet for liquid from said removable liquid container, wherein the outlet of the dispenser connector is adapted to fit tightly around an existing feed tube of the liquid dispenser (1). The adapter (9) can be part of an adapter assembly, which can optionally comprise a liquid transfer regulating means (11) adapted to cooperate with and regulate liquid transfer through said adapter (9).

A removable reservoir water dispensing system which includes a water dispenser body with a built-in water reservoir and a coupling for connecting a removable water reservoir to the built-in reservoir. A drainage pipe, through which water is drained from the built-in reservoir, extends through a bottom of the built-in reservoir. The drainage pipe has a first end and a second end. The second end is connected to a dispensing faucet on the water dispenser body. The first end extends vertically into the built-in water reservoir for at least one third of a height of the built-in water reservoir. Water in the built-in water reservoir, positioned below the first end of the drainage pipe, is unable to pass through the drainage pipe to the dispensing faucet and is always resident in the built-in water reservoir at a pre-set dispensing temperature.

A removable liquid transport assembly configured to be readily installed in and removed from a liquid dispenser to permit the liquid dispenser to be readily sanitized. The removable liquid transport assembly preferably includes a liquid manifold, a valve assembly and a pump head. The removable liquid transport assembly is configured such that liquid can flow in a first direction through the removable liquid transport assembly to permit a liquid to be dispensed from a liquid dispenser and liquid can flow in a second direction back to a liquid storage container to prevent damage to one or more components of the liquid dispenser.

The present invention relates to a device and a method for decanting a beverage initially contained in one or more closed bottles into smaller containers. The device comprises an enclosure under an inert atmosphere, provided with an inlet port comprising receiving means, into which inlet port the neck of the bottles is fitted, and an outlet port through which the hermetically sealed containers are evacuated. The device contains an opening station for opening the bottles fitted into the receiving means, a collection vessel that collects the liquid flowing out of the bottles, a filling station for filling the containers from the collection vessel, and a sealing station for hermetically sealing the containers. In the method, the steps of opening and emptying the bottles, and of filling and hermetically sealing the containers, are all carried out under an inert atmosphere.

A fluid storage and dispensing system that safely and efficiently stores all grades of motor oil is provided. The system is configured to accurately dispense motor oil into vehicles. The system may also be used for the storage of and dispensing of other fluids.

The invention relates to a water dispenser intermediate part, wherein the water dispenser intermediate part has first connecting means for connecting a water tank to the water dispenser intermediate part, and the water dispenser intermediate part has second connecting means for connecting the water dispenser intermediate part to a water dispenser device. The water dispenser intermediate part has a water pipe piece which connects the first connecting means to the second connecting means. The water dispenser intermediate part has a water consumption meter and/or a water level sensor for determining water consumption via the water pipe and/or a water level in the water container, The water dispenser intermediate part has at least one transmitter part for wireless transmission of water consumption values and/or water level reports from the water tank.

The present invention discloses systems and methods for purifying non-potable water. For some embodiments, the system comprises a chemical filter placed at an outlet where potable water exits the system.

A dispenser includes: a tank; an inlet pipe connected to the tank and to supply liquid to the tank; a heater for heating liquid in the tank; an inverter printed circuit board for controlling the operation of the heater; a heat sink formed of a metal or other heat conductive material, and having a cavity; and a power semiconductor element electrically connected to the inverter printed circuit board to control power to the heater, and fixed to the heat sink to heat-exchange with liquid flowing in the cavity. The cavity of the heat sink may receive a section of the inlet pipe or may form a flow path to receive the fluid from the inlet pipe.