System for dispensing a beverage into a container (18) comprising at least one dispenser unit (10). The dispenser unit (10) comprises at least one beverage outlet port and a movable seal member (34) which is configured to form a sealing barrier between at least a portion of the container (18) and the dispenser head. In this way the container is pressurised before filling, so as to avoid excessive foaming.

A water ejecting apparatus includes a case and a water ejection unit connected to the case. The water ejection unit includes a fixed cover connected to the case, having atop dead point and a bottom dead point, and including a lifting gear provided between the top dead point and the bottom dead point, a lifting cover movably coupled to the fixed cover, a lifting motor coupled to the lifting cover and a gear module interworking with the lifting motor and the lifting gear, a water ejection nozzle for ejecting water, a signal detecting unit that detects a frequency generation (FG) signal generated by the lifting motor during an operation of the lifting motor, and a controller configured to control the operation of the lifting motor upon determining that the lifting cover reaches the top dead point or the bottom dead point based on the FG signal.

Methods and systems for accurately and securely dispensing high value beverages are presented herein. A beverage distribution system includes one or more replaceable beverage cartridges mounted to a beverage dispensing device. Each of the beverage cartridges includes a fluid reservoir with an output port, an output control valve, a flowmeter, and a local controller. The local controller receives signals from the flow meter and determines a cumulative amount of beverage fluid dispensed from the beverage cartridge based on the received signals. In one embodiment, the beverage dispensing device includes a fluid pump and a master controller. The master controller also estimates the cumulative amount of beverage fluid dispensed from each beverage cartridge based on control commands communicated to each beverage cartridge. If a difference between the estimated cumulative amounts of fluid dispensed from a beverage cartridge exceeds a predetermined threshold value, an alert is generated.

An example method comprises receiving a control signal to open a first valve of a compressible liquid container within an airtight pressurized container, retrieving a first dispensing profile, each dispensing profile indicating at least one valve and, for each valve, a predetermined period of time for keeping a particular valve open, each of the valves controlling transport of contents a different compressible liquid container contained within the airtight pressurized container to a dispensing system, for each of the one or more valves identified in the first dispensing profile: opening the particular valve identified in the first dispensing profile for the particular predetermined period of time to transport contents over a first liquid transport conduit that is coupled to a particular releasable coupling and the particular valve, and closing the particular valve after the particular predetermined period of time to dispense an amount of contents of the particular compressible liquid container.

An interactive beverage dispensing system, including one or more keg style beverage connections and or containers, optional carrier gas assembly, optional temperature regulating housing for the one or more keg style beverage containers and the carrier gas assembly, a faucet assembly including least one faucet, a solenoid valve assembly having at least one solenoid valve a quick release system which connects each of solenoid valves to a faucet of the faucet, a quick release system which connects solenoid valves to the keg style beverage containers and the carrier gas assembly; a display interface system; and at least one processor. The system further includes memory storing computer readable instructions, when executed by the at least one processor to perform numerous functions. The system can be networked with one or more servers and can be integrated into known point-of-sale systems.

A system for dispensing a liquid from a bottle 13 comprises an assembly 17, 18 and a stopper 19 to be introduced into a bottleneck, which stopper can be separated from the assembly. The stopper 19 comprises a liquid dispensing pipe 14, 16 with a electromagnetic valve 15 and a gas path 12 having a check valve 11 therein. The assembly comprises a solenoid 10 and a tank 1 containing gas for driving the liquid from the bottle. The tank is connected via a further electromagnetic valve 3 to gas pipes 8 and 9. The stopper which closes off the bottle can be connected to the assembly such that gas pipe 9 connects with check valve 12 and solenoid 10 surrounds electromagnetic valve 15. By actuating programmable button switch 4 both electromagnetic valves 3, 15 open for a preset time so that a metered quantity of liquid is dispensed from the bottle. Alternatively, another button switch 5 allows to dispense a non-preset volume of liquid.

A contactless interface for a beverage dispenser including a sensor and circuitry. The sensor has a field of view and is configured to sense an object located in a detection zone of the sensor. The detection zone is an area within the field of view and at a distance less than a maximum detection distance from the sensor. The circuitry is configured to output a detection signal while the object is sensed within the detection zone. The detection signal is an electrical signal.

A water ejecting apparatus includes a case and a water ejection unit connected to one side of the case. The water ejection unit includes a first lifting cover having a lifting gear extending in an up-down direction, a second lifting cover movably accommodated inside the first lifting cover, a lifting motor coupled to the second lifting cover and configured to interwork with the lifting motor, a water ejection nozzle installed at a lower end of the second lifting cover and configured to eject water, and a light source disposed inside the second lifting cover and configured to output light to a lower side or a side surface of the second lifting cover.

A system comprising, a pressurized container including hollow portion and outer portion, pressurized container maintains pressure level in the hollow portion, transport system including two conduits, one transport being coupled to an interface and a valve port, the interface coupled to the hollow portion, the interface maintains pressure level in the hollow portion, one valve port allows flow of liquid volume through one conduit to a dispensing interface via another valve port, an external container is airtight and operable to dispense another liquid volume stored within, another conduit is coupled to the external container and further valve port to refill the liquid volume via the valve, pressure regulation system connected to pressurized container, pressure regulation system including a pressure conduit extending from outer portion through a pressure interface, pressure regulation system operable to compress liquid volume in the environment and a control system controls the valve and pressure regulation system.

A system comprising a pressurized container including a hollow portion and an outer portion, the pressurized container being airtight to maintain a pressure level in an environment in the hollow portion, a controllable pressure system coupled to the pressurized container to generate the environment, a transport system including two transport conduits coupled to two liquid volumes stored within the pressurized container, a pressure regulation system connected to the pressurized container, the pressure regulation system including a pressure conduit extending from the outer portion through a pressure interface and into the hollow portion, the pressure regulation system exerting and maintaining the pressure level within the pressurized container to enable compression of liquid volume in the environment, a temperature system to maintain temperature of the transport system, a temperature control system providing a temperature control signal to the temperature system, and a control system controlling the pressure regulation system.