A filling element for filling containers includes a liquid valve disposed to control flow into the container. The valve has an elastic diaphragm and a valve surface. An actuator causes the diaphragm to transition between a first state, in which it butts against the valve surface, and a second state, in which it is spaced apart from the valve surface.

A filling system includes filling elements, each of which has a channel formed in its housing. During filling, filling material, under a liquid valve's control, passes through the channel and exits through an opening and into a container held on a vertically displaceable container carrier. During pressure filling, the container carrier seals the container against the filling element. During cleaning and sterilization, rinsing caps seal each opening. Each filling element is associated with an extension that seals the outlet. Each extension has a filling-material through-passage that, when the extension is sealed against said outlet, extends the filling-material channel.

A system and method for independently routing vehicles and delivering containers and closures to unit operation stations are disclosed. The containers and closures can, in some cases, be transported on the same vehicle. In other cases, the containers and closures can be transported on different vehicles.

A rotary filling machine includes a hub member and a hub insert. The hub member includes an internal bore defining an inner surface portion with a plurality of material transfer openings. The hub insert includes a portion disposed within the bore, wherein the portion includes an outer surface portion that includes a plurality of material transfer openings. One of the hub member or the hub insert is rotatable and the other of the hub member or the hub insert is stationary.

A filling machine for filling containers with a pourable product, comprising: a product tank containing the pourable product and a first gas maintained at a first pressure value; at least one dosing tank containing a second gas; a first pressurizing device configured to selectively pressurize the second gas in the at least one dosing tank to a second pressure value, that is lower than the first pressure value; a controller configured to: set the second valve in an open configuration after the at least one dosing tank has been pressurized to the second pressure value; and set the second valve in the closed configuration as the pressure detected by the sensor in the at least one dosing tank reaches a third pressure value corresponding to a predetermined volume of the pourable product in the dosing tank.

A device for filling a container with a filling product in a beverage filling plant is provided. A transporting device for transporting a container to be filled during the filling process is provided, wherein the transporting device transports the container to be filled along a transporting path, and wherein at least one determining unit for determining the fill level of the filling product in the container is provided, wherein at least one of the determining units can be displaced synchronously with the transporting device at least in a sub-section of the transporting path of the container.

A method for filling containers simultaneously with the filling-material sealing the containers against filling heads at the filling positions, and using a filling-material volumetric-flow-rate controller common to all of the filling positions to control flow of filling-material as a function of a target filling-curve by executing a filling phase with intervals that have different flow rates and controlling transition times between these intervals to ensure that each container finishes the filling phase with the correct amount of filling-material.

A rotary beverage filling machine for cans which have a heat exchange unit secured to the bottom thereof and extending into the can which includes a conveyor for transporting cans to be deposited on a pedestal which is adapted to move the can into contact with a sealing device surrounding a nozzle which is disposed within the open upper end of the can but is displaced from the heat exchange unit.

A device for filling containers with a filling product, that includes a stationary plant section, a plant section, and a rotary distributor is described. The plant section rotates in relation to the stationary plant section and includes at least one filling valve for filling a container with the filling product. The rotary distributor is configured to transfer the filling product from the stationary plant section to the rotating plant section, and has a distributor housing and a distributor shaft, which is at least partially accommodated in the distributor housing and which includes at least one bore for conducting the filling product. The distributor housing is disposed on the stationary plant section and the distributor shaft is disposed on the rotating plant section.

A can to contain a liquid and/or a gas is closed with a bottom element and a cover element. The innermost layer is a straight-wound barrier layer having a folded seam extending in a longitudinal direction. The barrier layer includes an inner diffusion-tight layer and an outer kraft paper layer. At least two further straight-wound layers made of paper or cardboard are around the barrier layer of the can shell. Adjoining cardboard or paper surfaces of the barrier layer and a next wound layer are adhered directly to each other. Each of the two further wound layers is longitudinally wound and include in the longitudinal direction an overlapping region with itself. The overlapping region of the next wound layer adjoining the barrier layer is offset relative to the folded seam of the barrier layer and the overlapping regions of the two further wound layers are located at different peripheral regions.