Abstract:
A pour spout, for attaching to a bottle, has a first wireless transceiver and a valve for selectively controlling flow of a beverage from the bottle. A server interface, adapted to be carried by a person who serves beverages, has a second wireless transceiver. A control unit is provided to wirelessly communicate with the second transceiver. In one mode, the pour spout transmits a spout identifier to the server interface, which responds by transmitting the spout identifier and a server identifier to the control unit. The control unit responds with a reply transmission causing the server interface to command the pour spout to open the valve. In another mode, a person selects a cocktail, that results in the control unit sending designations of a plurality of liquor ingredients to the server interface. The server interface controls dispensing each of the plurality of liquor ingredients.
Abstract:
The invention relates to a tapping device for at least one bag-in-carton package equipped with a tapping valve. The tapping device has a housing for receiving the bag-in-carton package and an actuating unit which corresponds with the tapping valve and which has a valve-receiving bearing and at least one actuating portion for actuating the tapping valve. The actuating portion is articulated on the valve-receiving bearing by a pivot pin, has an upwardly directed lever arm and is arranged completely within the housing. Upstream of a contact region which is situated above the pivot pin on the lever arm there is arranged an actuating portion which engages through the housing and acts on the lever arm in the contact region in order to actuate the tapping valve by way of the actuating portion and can be actuated manually from outside the housing. The invention further relates to the actuating unit and to a cassette for the tapping device.
Abstract:
A water dispenser unit includes a water dispenser and a self-propelled cleaning robot, and the space for the water dispenser can be easily secured even in a limited living space. A robot receiving space is defined in the lower portion of the water dispenser such that the self-propelled cleaning robot can self-travel into and out of the robot receiving space. The water dispenser unit includes a charging station provided in the robot receiving space.
Abstract:
Fluid transfer interfaces for transferring fluid into or out of vessels, namely flexible polymeric bags. The fluid transfer interfaces have a body for use in connection with a vessel, or combined therewith, one or more apertures extending through the body, and one or more fluid transfer conduits secured to the body by way of a cast seal and extending continuously and axially through the one or more apertures. Also disclosed is a vessel closure having one or more fluid transfer conduits extending through the closure, the fluid transfer conduits affixed to the closure by a cast seal.
Abstract:
A manifold having a first side, a second side, a first channel extending from the first side to the second side, and a second channel extending from the first side to the second side is disclosed. The first channel and the second channel each define a linear longitudinal axis. In one embodiment, the first channel longitudinal axis and the second channel longitudinal axis are oblique to the first side and the second side of the manifold. The manifold of the present disclosure provides channels that can be easily cleaned and allow for an increased flow performance.
Abstract:
The invention relates to a device (1) for forming droplets in a microfluidic circuit, the device comprising a chamber (3) containing a first fluid and defined by two opposite walls (10, 11) that diverge relative to each other in at least one given direction, and a microchannel (8) containing a second fluid and leading into a zone of said chamber (3) that is upstream relative to the given direction, the outlet of the microchannel (8) into the chamber (3) constituting an enlargement in the flow section for the second fluid, and the enlargement giving rise to droplets (14) of the second fluid forming within the first fluid.
Abstract:
A filling element for filling containers with a lumpy liquid filler includes a liquid valve that is arranged in a liquid channel in an interior of a filling element housing and that is formed by a first valve surface, cooperating with a first valve seat, on a valve body that is movable along a filling-element axis to open and close the liquid valve, and that comprises at least two dispensing openings on filler flow channels, the dispensing openings forming a filler outlet. The filler flow channels are in flow communication with the liquid channel and with each other when the liquid valve is open and are separated from each other and from the liquid channel when the liquid valve is closed. The element also includes a separate valve arrangement that separates the filler flow channels from each other in flow terms when the liquid valve is closed.
Abstract:
An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component comprising an inner surface. The first valve has an open position to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode, in a closed position when the combination is in the sanitizing mode. The sanitizing system comprises a processing unit, having an electrochemical cell configured to produce an anolyte solution and a catholyte solution. The sanitizing system comprises a second valve having an open position to send the anolyte solution and the catholyte solution to the at least one component when the apparatus is in the sanitizing mode. The second valve has a closed position when the apparatus is in the dispensing mode.
Abstract:
An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.
Abstract:
System and methods to provide a determined amount of fuel for a vehicle and a determined amount of captured exhaust to offload from a vehicle are disclosed. In embodiments, the system may comprise a bay. The bay may include a fuel dispenser, an exhaust receiver, and a detector configured to (a) determine if the vehicle is approaching the bay and (b) obtain data associated with the vehicle and data associated with a user of the vehicle. The system may include a computing device or controller, in signal communication with the detector, configured to receive the data associated with the vehicle and user, determine a predicted amount of fuel to pump to the vehicle and a predicted amount of exhaust to offload from the vehicle based on the data, and initiating one or more of (a) a fueling operation or (b) an exhaust offloading operation.