An apparatus for shaping plastic preforms into plastic containers is disclosed. Said apparatus comprises a conveying device on which a plurality of blowing stations are arranged. Each of said blowing stations encompasses a blow mold, within which a plastic preform can be shaped into a plastic container. The apparatus further comprises a clean chamber, within which the plastic preforms can be conveyed. According to the invention, the zone of the conveying device in which the blowing stations are arranged is located in the clean chamber, and at least one additional zone of the conveying device is located outside the clean chamber.

Plant for processing plastic preforms, includes an injection-moulding machine for producing the plastic preforms, a sterile blow-moulding machine for forming the plastic preforms into plastic containers, and a transport system for transporting, at least partially and/or in portions, the produced plastic preforms from the injection-moulding machine to the blow-moulding machine, wherein during transport, the plastic preforms can be guided in particular at a mouth region of the plastic preforms. The transport system includes a sterile pneumatic conveyor or a plurality of transport shuttles, in particular magnetic shuttles, and the plastic preforms are transported from the injection-moulding machine to the blow-moulding machine by the sterile pneumatic conveyor or magnetic shuttle.

To simply sterilize a blow-molding machine. A mist or gas of hydrogen peroxide or a mixture thereof is introduced through a valve block disposed adjacent to a molding die, thereby sterilizing at least the molding die and an extension rod that extends into the molding die through the valve block.

A heating apparatus and heating method for preforms that heat a sterilized preform to a temperature at which the preform can be molded into a bottle in an aseptic atmosphere. Additionally, an aseptic blow molding machine and an aseptic blow molding method that can mold the sterilized preform into a bottle in the aseptic atmosphere, and can take out the bottle from a bottle molding machine in a state where the sterility of the bottle is maintained. A chamber covering a heating unit that heats the preform is provided, and a sterilizing apparatus that sterilizes the inside of the chamber, and an aseptic air supplying apparatus for maintaining the sterility are provided. Additionally, a chamber covering a molding unit that molds the preform into a bottle is provided, a sterilizing apparatus that sterilizes the inside of the chamber, and an aseptic air supplying apparatus for maintaining the sterility are provided.

Provided is a method for operating a device for shaping plastic preforms to form plastic containers, wherein the device has a movable support on which a plurality of shaping stations for shaping plastic preforms to form plastic containers are arranged, and these shaping stations each have blow molds that are suitable for and intended for molding the plastic preforms and are arranged at least indirectly on blow mold supports. The blow molds are kept at least temporarily in a magazine device, wherein this magazine device is suitable for and intended for receiving several sets of blow molds.

A method of making a container via a simultaneous filling and forming of the container with a liquid product is disclosed. The method comprises the steps of extruding a parison (12, 2), capturing a portion of the parison (12, 2) within a mold (15), and inflating the captured portion of the parison (12, 2) against the mold (15). The captured portion of the parison (12, 2) is inflated against the mold (15) by introducing the liquid product into an interior of the captured portion of the parison (12, 2), wherein the liquid product forms an end product to be sealed within the resultant container.

To make a sterilization step appropriate in an aseptic filling apparatus. Provided is an aseptic filling apparatus including a step of sterilizing a preform and a step of sterilizing a container obtained by molding the preform, wherein assuming sterilization effects in the respective sterilization steps as X [LRV] and Y [LRV], a relationship of 5≤X+Y≤10 (where Y≥0) is established.

A method for operating a system for handling containers, wherein said system for handling containers has a first handling device which handles the containers in a first predetermined manner, and at least one second handling device which handles the containers in a second predetermined manner, and a transport device which transports the containers from the first handling device to the second handling device. A control device controls the handling of the containers by at least one of the two handling devices using at least one first physical parameter which is characteristic of environmental conditions at an operating site of the system and/or using at least one second physical parameter which is characteristic of a physical property of the containers to be handled, wherein at least one of these physical parameters is determined and an operating recipe is determined independently of the system and taking this parameter as a basis, which operating recipe is used by the control device to control at least one handling device.

The present invention relates to a system for the disinfection of containers in a blowing and filling system of said containers with a product, in particular a system for the internal disinfection of said containers by means of ultraviolet-C radiation LED emitters.

The invention in particular relates to a disinfection unit (6) of containers (C) or preforms (P), characterized in that it comprises a carousel (13) on which there is supported a plurality of disinfection members (8, 108), which are movable between a raised position and a lowered position, wherein said lowered position is configured so as to allow the disinfection members (8, 108) to enter said containers (C) or preforms (P) to be disinfected, wherein each of said disinfection members (8, 108) comprises a plurality of disinfection elements (20) emitting UV-C radiation or it is connected to a LASER source (102) which emits UV-C radiation or radiation in the visible-infrared field (VIR).

A process station (1) for a parison or a container (2) made of thermoplastic material, comprising: a concave shell (3) configured to be applied onto the mouth (2b) of the individual parison or container (2) in such a manner as to enwrap at least partially the neck (2a) of the parison or container (2) so as to delimit a volume for treatment (4) of the neck (2a) subjected to plasma balls immersed in a carrier gas stream.