The present invention relates to a method and a product dispenser comprising a tank for storing a flowable product and a conveyor for conveying storage containers along a longitudinal direction from an entry position to an exit position. The product dispenser further comprises a dosing mechanism extending in the longitudinal direction above the conveyor. The dosing mechanism comprises an inner cylindrical part and an outer cylindrical part enclosing and sealing against the inner cylindrical part. The inner cylindrical part defines a circumferential groove and a helically shaped groove extending between the entry position and the exit position. The outer cylindrical part defines an elongated opening extending in the longitudinal direction and an inlet opening for establishing a fluid path from the tank via the circumferential groove and the helically shaped groove to the elongated opening. The inner cylindrical part is rotatable for dispensing the flowable product into the storage containers.

A packaging machine is provided for producing single and multiple compartment film wrapped pouches. Multiple linear motors allow aspects of the forming, filling, cutting and discharging to run at different speeds. The pouches are formed, filled and discharged from platens that are secured to movers that proceed through the packaging process by following magnetic fields created by independently controlled linear motors. Overall, cycle time is decreased as a result of speeding up parts of the process, including the platen return process, possible because there is no mechanical connection and not a single conveyor moving the platens while the other parts of the process may be simultaneously slowed down or even temporarily stopped. Changeover of platens, to accommodate different products, such as single compartment pouch to multiple compartment pouches, is also simplified because platens are simply connected to the movers and are thus easily removed and replaced.

A packaging machine is provided for producing single and multiple compartment film wrapped pouches. Multiple linear motors allow aspects of the forming, filling, cutting and discharging to run at different speeds. The pouches are formed, filled and discharged from platens that are secured to movers that proceed through the packaging process by following magnetic fields created by independently controlled linear motors. Overall, cycle time is decreased as a result of speeding up parts of the process, including the platen return process, possible because there is no mechanical connection and not a single conveyor moving the platens while the other parts of the process may be simultaneously slowed down or even temporarily stopped. Changeover of platens, to accommodate different products, such as single compartment pouch to multiple compartment pouches, is also simplified because platens are simply connected to the movers and are thus easily removed and replaced.

Apparatus and method for filling bulk materials into open-mouth bags, including the following steps: a) an open-mouth bag is appended from beneath to a filling spout of a filling station by way of an at least partially upwardly motion, so that the bottom end of the open-mouth bag is freely suspended; b) the filling process is started and bulk material is introduced into the open-mouth bag so that the freely suspended bottom end of the open-mouth bag unfolds; and c) the filling spout is lowered, so that the unfolded bottom end of the open-mouth bag is supported.

Apparatus and method for filling bulk materials into open-mouth bags, including the following steps: a) an open-mouth bag is appended from beneath to a filling spout of a filling station by way of an at least partially upwardly motion, so that the bottom end of the open-mouth bag is freely suspended; b) the filling process is started and bulk material is introduced into the open-mouth bag so that the freely suspended bottom end of the open-mouth bag unfolds; and c) the filling spout is lowered, so that the unfolded bottom end of the open-mouth bag is supported.

A method for producing filled containers (16) from preforms (13). Each of the preforms is transferred to a circulating molding and filling element (14) of a molding and filling station and is shaped into the respective container in a subsequent molding and filling process in a mold under the effect of pressure from a supplied filler, wherein the mold is designed in multiple parts, including a base mold (21) and mold sides (19, 20), and each container is clamped between the base mold at the bottom and the molding and filling element at the top at least at the end of the molding and filling process. The container is separated from the respective molding and filling element and the respective mold after the molding and filling process. The mold sides are removed from each container before the molding and filling element and the base mold are separated from the container.

A method of packaging snack food chips, the method comprising the steps of: (a) providing a plurality of snack food chips as a shingled assembly of the snack food chips; (b) enclosing the shingled assembly within an elongate packaging container; (c) vibrating the shingled assembly supported so as to cause the snack food chips sequentially to fall from a free output end into the elongate packaging container while progressively translationally separating a closed end and the free output end to form a shingled stack extending away from the closed end; and (d) during at least a part of step (c), rotating the elongate packaging container so that the closed end is lowered while decreasing an angle of inclination such that the shingled stack is being progressively formed.

A method of packaging snack food chips, the method comprising the steps of: (a) providing a plurality of snack food chips as a shingled assembly of the snack food chips; (b) enclosing the shingled assembly within an elongate packaging container; (c) vibrating the shingled assembly supported so as to cause the snack food chips sequentially to fall from a free output end into the elongate packaging container while progressively translationally separating a closed end and the free output end to form a shingled stack extending away from the closed end; and (d) during at least a part of step (c), rotating the elongate packaging container so that the closed end is lowered while decreasing an angle of inclination such that the shingled stack is being progressively formed.

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.

In an example embodiment, an apparatus for making pouch products includes a conveyor system. The conveyor system includes a first receiving location along a path of the conveyor system, and a dosing location along the path of the conveyor system. The apparatus also includes a first material dispensing station configured to transfer a first material to the first receiving location. The first material includes a first elastic layer and a first support layer. The first material dispensing station includes a dispenser roller configured to hold a roll of the first material, a plurality of rollers configured to convey the first material from the dispenser roller to the first receiving location, and a stripper plate configured remove at least a portion of the first support layer from a portion of the first elastic layer.