The invention relates to a container precursor comprising a wall, wherein the wall a) surrounds an interior region, and b) comprises a first wall region and a second wall region; wherein the first wall region comprises a first layer sequence comprising a first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the first wall region, a second carrier layer is characterised by a smaller layer thickness than a first carrier layer, or a third carrier layer, or both; wherein the second wall region comprises a second layer sequence comprising first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the second wall region, the second wall layer is connected to the third wall layer; wherein, in the second wall region, the third carrier layer is characterised by a larger layer thickness than the first carrier layer, or the third carrier layer, or both. Further, the invention relates to a process for manufacturing a container precursor, a container precursor obtainable through this process, a closed container, a process for manufacturing a closed container, a closed container obtainable through this process, a use of the aforementioned container precursor, and a further use of the aforementioned container precursor.

The invention relates to a container precursor comprising a wall, wherein the wall a) surrounds an interior region, and b) comprises a first wall region and a second wall region; wherein the first wall region comprises a first layer sequence comprising a first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the first wall region, a second carrier layer is characterised by a smaller layer thickness than a first carrier layer, or a third carrier layer, or both; wherein the second wall region comprises a second layer sequence comprising first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the second wall region, the second wall layer is connected to the third wall layer; wherein, in the second wall region, the third carrier layer is characterised by a larger layer thickness than the first carrier layer, or the third carrier layer, or both. Further, the invention relates to a process for manufacturing a container precursor, a container precursor obtainable through this process, a closed container, a process for manufacturing a closed container, a closed container obtainable through this process, a use of the aforementioned container precursor, and a further use of the aforementioned container precursor.

One object is to provide an electron beam sterilization apparatus for sterilizing a preform product (P) by applying an electron beam while conveying the preform product (P), the apparatus comprising: an input star wheel (21) configured to convey the preform product (P) in a circular path; and an outer-surface electron beam application device and an inner-surface electron beam application device configured to apply an electron beam to the preform product (P) being conveyed by the input star wheel (21). A blocking short tube (31) is provided on a lower surface of the star wheel plate (22) of the input star wheel (21) so as to block radioactive rays produced by application of the electron beam and surround a central axis (1v) of the input star wheel (21). The blocking short tube (31) includes a ventilation space (34) formed therein.

A functional medical package is disclosed having a disposable package and a sterile container removably received inside the disposable package. A subsystem is received in the sterile container and is configured to be at least partially inserted into a host. The sterile container has an insertion exit opening for the subsystem and a liner closes the insertion exit opening. The liner is attached to the disposable package and automatically peels off the insertion exit opening when the sterile container is removed from the disposable package. Also disclosed are a method of manufacturing the medical package and a method of using the medical package with an inserter.

A functional medical package is disclosed having a disposable package and a sterile container removably received inside the disposable package. A subsystem is received in the sterile container and is configured to be at least partially inserted into a host. The sterile container has an insertion exit opening for the subsystem and a liner closes the insertion exit opening. The liner is attached to the disposable package and automatically peels off the insertion exit opening when the sterile container is removed from the disposable package. Also disclosed are a method of manufacturing the medical package and a method of using the medical package with an inserter.

A pre-loaded container and a method of manufacturing a preloaded vial is provided wherein one or more active agents is lyophilized within the vial cap and the vial cap is then sealed onto a vial retaining a suitable diluent to form the pre-loaded vial. Lyophilizing the one or more active agents within the vial cap ensures that the one or more active agents are retained in sterile conditions, that the lyophilized one or more active agents and the diluent may be stored efficiently, and that the one or more active agents may be solubilized in a sterile and efficient manner.

A pre-loaded container and a method of manufacturing a preloaded vial is provided wherein one or more active agents is lyophilized within the vial cap and the vial cap is then sealed onto a vial retaining a suitable diluent to form the pre-loaded vial. Lyophilizing the one or more active agents within the vial cap ensures that the one or more active agents are retained in sterile conditions, that the lyophilized one or more active agents and the diluent may be stored efficiently, and that the one or more active agents may be solubilized in a sterile and efficient manner.

One object is to provide an electron beam sterilization apparatus including: an inner-surface sterilization chamber (5) including an inner-surface electron beam application device; and a blocking chamber (6) for receiving a preform product (P) from the inner-surface sterilization chamber (5) and blocking X-rays produced by application of the electron beam. The blocking chamber (6) includes an upstream opening (62) and a downstream opening (63) formed therein, the preform product (P) being received through the upstream opening (62) and transferred through the downstream opening (63). The blocking chamber (6) includes: a gripper (74) for gripping the preform product (P); a sterilized rotation table (71) for conveying the gripped preform product (P) in a circular path; and a blocking wall (81) not in contact with the sterilized rotation table (71) and configured to block the X-rays.

A method is described for shaping the bottom of hot-filled containers, in which the bottoms of the containers are forced inwardly from a state bulged outwardly, in particular as they cool down. Complex mechanisms for forcing the bottom inwardly are dispensable for the reason that the bottoms are forced inwardly by at least one fluid jet and/or fluid pressure wave. In addition, shaping the bottom can advantageously be carried out in a production region immediately downstream of a closer.

The invention relates to a method for treating and distributing foodstuffs, in particular meat or sausage products, the foodstuffs being enveloped by a packaging material or introduced into a packaging material. According to the invention, the foodstuff contained in and provided with the packaging is subjected to a targeted treatment in order to inactivate micro-organisms for the purposes of microbe reduction and a protective coating is applied to the packaging immediately afterwards or during this treatment.