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.

Bottom-loading bottled water dispensers are disclosed that include hot water sanitizing capabilities (and, optionally, UV light sanitizing features). The dispensers include a water bottle that is operably connected to a pump that is configured to extract water from the bottle and force the water through one or more tubes and into a cold tank. The cold tank includes an evaporator that is configured to chill the water in the cold tank. The dispensers further include a hot tank that is fluidly coupled to the cold tank through one or more tubes, with the hot tank being attached to a heating element that is configured to heat the water in the hot tank. In addition, the dispensers include an electronic control board that is configured to heat a volume of water contained in the cold tank above a defined threshold temperature and for a defined period of time that is effective to sanitize the internal surfaces of the cold tank.

A delivering device (12) of liquids contained in water crocks is described, equipped with a system or kit (1) for replacing the water crocks with vessels of the Bag-In-Box BIB (14) type for their delivery, such system or kit (1) being adapted to perform the placement and connection of the BIB vessels (14) on the delivering device (12), and comprising: a main body (4, 17, 18); a plate (3, 16) adapted to place thereon at least one BIB vessel (14); a connector (10) and adapted to be connected with a delivering tap of a BIB vessel (14); a plug (8) adapted to be connected to a PIN (13) of the delivering device (12); a connecting tube (4.1, 17.1, 18.1) placed in the main body (4, 17, 18) and connected to the flexible hose (9) for communicating the BIB vessel (14) with the delivering device (12); and a check valve assembly (6, 7) for preventing liquid from reentering into the main body (4, 17, 18).

The present invention relates to a portable desktop refrigerated dispenser for beverages, preferably bottled, comprising a base (3), a cup (4) intended for housing beverages, a holder lid (6) equipped with holder lid holes (7), bottle holders (28) that can be coupled to the holder lid holes (7) that retain the bottles inverted and inclined, a cool box (8) that limits a cooling cavity (9) around the cup (4) and that is intended for housing a cooling element, a manifold (13) connected to the cup (4) that receives the beverage and at least one tap assembly (15) connected to the manifold (13) through which the beverage is dispensed. Alternatively, the cup (4) can be filled from a dispensing column for draught beverages, dispensing with the bottle holders (28).

An autofill pitcher assembly having hidden venting is provided. The assembly includes a pitcher wall defining an opening at a top edge of the pitcher and a lid removably received in the opening. The lid includes a top wall, a skirt extending from a bottom surface of the top wall, a gasket disposed on the skirt, and a vent formed in the skirt between the gasket and the bottom surface of the top wall.

A bottled water dispenser is disclosed that includes a water bottle, a cold tank, and an ozone generator, which is fluidly coupled to a Y-connector. The dispenser includes a first tube that is fluidly coupled to a first port of the Y-connector, with the first tube being configured to deliver ozone gas to the cold tank. The dispenser further includes a second tube that is fluidly coupled to a second port of the Y-connector, with the second tube being configured to deliver ozone gas to the water bottle. The ozone gas is effective to sterilize and prevent biofilm formation within the interior areas of the cold tank and water bottle. The dispensers further include an in-line flow restrictor positioned in-line with either the first tube or second tube, which helps balance the flow of ozone that is delivered to the cold tank and water bottle.

A bottled water dispenser is disclosed that includes a water bottle, a cold tank, and an ozone generator, which is fluidly coupled to a Y-connector. The dispenser includes a first tube that is fluidly coupled to a first port of the Y-connector, with the first tube being configured to deliver ozone gas to the cold tank. The dispenser further includes a second tube that is fluidly coupled to a second port of the Y-connector, with the second tube being configured to deliver ozone gas to the water bottle. The ozone gas is effective to sterilize and prevent biofilm formation within the interior areas of the cold tank and water bottle. The dispensers further include an in-line flow restrictor positioned in-line with either the first tube or second tube, which helps balance the flow of ozone that is delivered to the cold tank and water bottle.

An apparatus for a programmable self sanitizing water dispenser apparatus with a digital controller as well as a programmable method for generating ozone for cleaning the reservoir and the water contained within it. The apparatus includes an anti-spill receiver that houses the controller and that can contain a ozone generator.

An apparatus for a programmable self sanitizing water dispenser apparatus with a digital controller as well as a programmable method for generating ozone for cleaning the reservoir and the water contained within it. The apparatus includes an anti-spill receiver that houses the controller and that can contain a ozone generator.

A cold water delivery system is described that can consistently provide cold water at a desired temperature over repetitive and large draws from the outlet of the system. The cold water system can provide multiple pathways for the water to travel from a source, or inlet, to the outlet. A cooling system can be provided that cools a plurality of reservoirs of water. The reservoirs can maintain cold water at different temperatures. A control system controls the cooling system to maintain the temperature of the water in the reservoirs. The control system can also control one or more mixing valves to determine the volume of water from each of the reservoirs and the water inlet that reaches the outlet.