There is described a packaging apparatus for forming a plurality of sealed packages from a tube of a web of packaging material which is continuously filled with a pourable product. The packaging apparatus comprises a delimiting element arranged, in use, within the tube and being designed to divide the tube, in use, in a first space and a second space. The packaging apparatus also comprises a pressurizing device for pressurizing the second space by a sterile gas withdrawn from the inner environment of an isolation chamber within which the tube is formed. Furthermore, the delimiting element is also designed to allow, in use, a leakage flow of sterile gas from the second space into the first space.

Disclosed in an assembly for forming bags, having a belt drive for feeding a film at a film speed to a former shoulder to form a tubular film, a set of jaws movable at a jaw speed to engage and seal a tubular film to form a closed bag, and a sensor assembly to provide a volume signal indicative of a volume of the closed bag, wherein the controller is configured to adjust at least one of the film speed and the jaw speed in response to the volume signal.

Disclosed in an assembly for forming bags, having a belt drive for feeding a film at a film speed to a former shoulder to form a tubular film, a set of jaws movable at a jaw speed to engage and seal a tubular film to form a closed bag, and a sensor assembly to provide a volume signal indicative of a volume of the closed bag, wherein the controller is configured to adjust at least one of the film speed and the jaw speed in response to the volume signal.

An apparatus for forming a package can include a first station for receiving a package from a packaging machine, the package having a trailing seal extending outwardly from a panel of the package. At the first station, the package is received in a forming box, which is rotated about the apparatus. The forming box with the package is rotated to a second station in which a flap folding plate extends to fold the trailing seal and apply a pressure to the panel of the package to flatten the panel of the package against an internal pressure of the package. The forming box then optionally rotates to a third station in which a holding plate maintains the pressure to the panel of the package for an additional dwell time. Finally the forming box rotates to a fourth position in which the package is released from the forming box.

An apparatus for forming a package can include a first station for receiving a package from a packaging machine, the package having a trailing seal extending outwardly from a panel of the package. At the first station, the package is received in a forming box, which is rotated about the apparatus. The forming box with the package is rotated to a second station in which a flap folding plate extends to fold the trailing seal and apply a pressure to the panel of the package to flatten the panel of the package against an internal pressure of the package. The forming box then optionally rotates to a third station in which a holding plate maintains the pressure to the panel of the package for an additional dwell time. Finally the forming box rotates to a fourth position in which the package is released from the forming box.

There is described a unit (1) for forming/advancing at least one pack (3) or at least one portion of a pack 5 (3), comprising: a frame (12a, 12b), at least one carriage (14, 14b), which is movable along a path (13a, 13b) with respect to frame (12a, 12b) and is adapted to form/advance said pack (3) or said at least one portion of a pack (3), an electromagnetic stationary device 10 (50), at least one tag (52a, 52b) carried by carriage (14a, 14b), and wireless communication means (51) configured to establish a bidirectional communication between stationary device (50) and tag (52a, 52b).

There is described a unit (1) for forming/advancing at least one pack (3) or at least one portion of a pack 5 (3), comprising: a frame (12a, 12b), at least one carriage (14, 14b), which is movable along a path (13a, 13b) with respect to frame (12a, 12b) and is adapted to form/advance said pack (3) or said at least one portion of a pack (3), an electromagnetic stationary device 10 (50), at least one tag (52a, 52b) carried by carriage (14a, 14b), and wireless communication means (51) configured to establish a bidirectional communication between stationary device (50) and tag (52a, 52b).

A bag-making and packaging machine, that makes bags by forming a conveyed film into a cylindrical film and putting product inside the cylindrical film, is disclosed. The bag-making and packaging machine includes a pair of ultrasonic sealing members, a cutting member, and clamps. The pair of ultrasonic sealing members are configured to sandwich the cylindrical film along a direction intersecting a conveyance direction and perform transverse sealing. The cutting member is configured to move between the pair of sealing members and cut transversely sealed portions of bags that have been made. The clamps are provided under the pair of sealing members and the cutting member. The clamps are configured to restrain the bags when the transversely sealed portions are cut.

A bag-making and packaging machine, that makes bags by forming a conveyed film into a cylindrical film and putting product inside the cylindrical film, is disclosed. The bag-making and packaging machine includes a pair of ultrasonic sealing members, a cutting member, and clamps. The pair of ultrasonic sealing members are configured to sandwich the cylindrical film along a direction intersecting a conveyance direction and perform transverse sealing. The cutting member is configured to move between the pair of sealing members and cut transversely sealed portions of bags that have been made. The clamps are provided under the pair of sealing members and the cutting member. The clamps are configured to restrain the bags when the transversely sealed portions are cut.

A method for quality assessment of a sealing section of a package, wherein the package includes at least a robustness layer and a plastic layer. The sealing section is formed by holding a first section and a second section of the package against each other while providing heat such that the plastic layer of the first and second section melt and thereby provide for that the first and second section adhere to each other. The method includes capturing image data depicting the sealing section using a camera, identifying a reference line in the image data, identifying a sealing section boundary line in the image data, determining a sealing section assessment feature set based on the reference line and the sealing section boundary line, and comparing the sealing section assessment feature set with a reference feature set.