A distribution control device includes a rotation sensing assembly and a logic control circuit. The rotation sensing assembly is communicated with the logic control circuit. The logic control circuit is communicated with a distribution equipment. The rotation sensing assembly is detachably fix and match with a container and synchronously rotates with the container. The rotation sensing assembly detects and sends rotation information to the logic control circuit according to rotation of the container from a starting position. The logic control circuit sends a feeding control instruction to the distribution equipment according to the rotation information and a preset corresponding relationship. When it is detected that the container returns to the starting position, a halt instruction is sent to the distribution equipment. The container is detachably communicated with the rotation sensing assembly to drive the rotation sensing assembly to rotate synchronously.

Beverage container, comprising a body and a neck, wherein at the neck a valve is provided for dispensing a beverage comprising gas from the container, wherein an inner surface part of the container adjacent the valve, especially an inner surface part of the container within the neck between the body and an inlet side of the valve is smooth and sloping towards the inlet side of the valve, such that foam is prevented from being trapped at the inner surface of the neck.

Beverage container (1) and valve (6) for a beverage container. Beverage container (1), comprising a body (2) and a neck (3), wherein at the neck (3) a valve (6) is provided for dispensing a beverage comprising gas from the container (1), wherein an inner surface part (21) of the container (1) adjacent the valve (6), especially an inner surface part of the container within the neck between the body and an inlet side (8) of the valve (6) is smooth and sloping towards the inlet side of the valve, such that foam is prevented from being trapped at the inner surface of the neck (3).

Disclosed are exemplary embodiments of apparatus, systems and methods relating to transfer of fluids to/from containers and/or storage/transport of fluids in containers. In an exemplary embodiment, an apparatus comprises a container including a fitment having an opening. The apparatus may include a valve within the fitment. The valve may be configured to inhibit fluid flow out of the container. The apparatus may also include a transfer tube configured to be positioned through the opening of the fitment. The transfer tube may engage and open the valve to thereby provide an open passage to/from the container.

A dispensing nozzle assembly is provided including a nozzle member provided with one or more dispensing apertures to allow fluid to be dispensed therefrom in use. Closure means are provided on or associated with the nozzle member and movable relative thereto between a closed position, wherein the closure means closes the dispensing apertures and fluid cannot be dispensed from the dispensing apertures, and an open position, wherein the closure means are moved at least partially clear of the dispensing apertures and fluid can be dispensed through the dispensing apertures in use. Switch means are moveable between an “on” position for allowing fluid to flow into the nozzle member for dispensing through the dispensing apertures in use, and an “off” position for preventing fluid flowing into the nozzle member in use. The switch means are arranged such that movement of the closure means relative to the nozzle member moves or actuates the switch means between the on and off positions in use.

A system for dispensing beverages into a receptacle controls both the dispense flow rate of a carbonated beverage and also uses bottom filling of the receptacle to limit entrainment and bubble formation during the dispense process. More particularly, the present application provides for using two separate flow paths for dispensing beverage with a first path employed initially for a low flow rate and a second path employed thereafter to fill the receptacle.

A beverage dispenser and methods of beverage dispensing include a dispenser with a beverage valve and a purge valve. The beverage valve is connected the dispenser body and is actively operable to control a flow of a base beverage into a flow path of the dispenser. The purge valve is selectively operable to control a flow of a purge substance into the flow path. A nozzle is configured to mix a flavoring from a flavoring nozzle with a base beverage from the beverage valve prior to dispensing a mixture of the flavoring and the base beverage from the nozzle.

Disclosed is an automatic isobaric dispensing machine for craft beer and a beer dispensing method by using the same. The automatic isobaric dispensing machine for craft beer comprises a housing; a beer dispensing head installed on the housing and hermetically placed at a container mouth of a container; a carbon dioxide supplying device connecting with a gas inlet of the beer dispensing head through a pre-pressure gas valve, a beer barrel connected with a beer inlet of the beer dispensing head through a beer outlet valve, a flowmeter for measuring a beer flow of the beer barrel, and a processor connected with the pre-pressure gas valve, the beer outlet valve, the flowmeter, the gas exhaust valve and the barometer. The isobaric dispensing machine has a simple machine structure and is convenient to use, and is capable of reducing the time cost and the beer waste thus providing better beer quality.

A system and method detection of an empty keg is provided. Carbonated beverages from a keg communicates a carbonated alcoholic beverage to a liquid beverage sensor in fluid communication with the bulk keg. The liquid beverage sensor includes at least one phase detection sensor capable of identifying a foam or gas-liquid interface (Float on Beer Detector), at least one pressure sensor, at least one flow sensor, or at least one temperature sensor. A controller in operative communication with the TCB communicates with the control valve, the actuation button and in communication with the sensors. Upon detection of a low float level for the FOB detector, or low system pressure, or high system temperature, an alarm and/or override of the control fo the tap is accomplished.

A flow diverting device is provided at the lower end of the dip-tube (D) in a bag-in-keg container (C) which is filled top-side-down, e.g. with beer. The device directs the incoming flow to run smoothly back down the outside of the dip tube, gently into the already pooled beer thus minimising any fountain effect and associated turbulence. The device can also be used with single-wall metal or plastic kegs to reduce the dispensing of sediment and allow a greater volume of beer to be withdrawn without fobbing.