A system and method for filling liquid products into bottles are described. The system comprises a machine block with a blow-molding machine for providing a flow of bottles, with a labeler for labeling the flow of bottles, with a first and second transport stretch, each comprising a filler for filling the bottles, and with a distribution unit dividing the labeled flow of bottles to the transport stretches when the transport is fully populated at all circulating labeling positions of the labeler and all circulating filling positions of the fillers. The filling system comprises outflow conveyors downstream of the fillers, with a combining device for combining the transport stretches to form a common outflow for the flow of bottles, thereby reducing the transport speed during filling and subsequent handling of the bottles, as well as problems due to the product in the bottles spilling over during the closure process.

A container sterilizing device (11) includes a transport mechanism (40) that transports a container (100) and a supply unit (50) that supplies a sterilizing agent to the container (100) that is being transported by the transport mechanism (40). The supply unit (50) includes a nozzle (51) for spraying the sterilizing agent. The nozzle (51) does not move in a vertical direction and, without being inserted into the container (100), moves in synchronization with the container (100) that is being transported by the transport mechanism (40).

Provided is a bottle which includes a neck portion configured to receive a cap to seal the bottle, a lower portion including a bottom on which the bottle is configured to stand erect, an upper portion extending from the neck portion to the lower portion and an annular rib. The annular rib defines a transition between the lower portion and the upper portion and protrudes outwardly with respect to both the upper portion and the lower portion of the bottle. The upper portion, lower portion and annular rib are portions of a single entity formed from one material. The upper portion is configured to reversibly collapse into the lower portion.

A bottle filling arrangement for filling bottles and similar containers, such as glass bottles, with a beverage, and a method of operating a bottle filling arrangement.

A bottling apparatus (1) in aseptic conditions of containers (100) made of a thermoplastic material, comprising: at least one mobile organ such as, for example, a blowing nozzle (24) that is partially located in a contamination-controlled environment (3) isolated from an external environment (4); a linear motor (6) for driving the mobile organ (24), the linear motor (6) comprising a cylindrical stator (7) and a rotor or magnetic shaft (8) integrally connected to the mobile organ (24), the separation volume between the rotor (8) and the cylindrical stator (7) being sanitisable by means of a sanitising fluid that passes through a grooved surface (14, 15, 18).

Provided is an inspection system for an article treatment machine for the packaging of pourable food products and having an isolation chamber delimiting an inner environment from an outer environment. The inspection system includes at least a separation housing mounted to the isolation chamber protruding into the inner environment. The separation housing includes a cavity fluidically separated from the inner environment. The inspection system further includes a camera at least partially arranged within the cavity.

The present invention relates to a packaging method for packaging a pourable product in at least one container, by means of which it is obtained an improvement in the flexibility of the packaging machine configured for carrying out the method with regards to the type of the product which is to be packaged, and to a machine configured for carrying out the method.

Described herein are a machine for packaging liquids or semisolid products in containers, in particular liquids in containers such as bottles, and a support system of such a machine. In particular, the machine for packaging liquids in containers includes two or more operating units selected from a preform oven, a blowing unit for blowing the preforms to form containers, a rinsing unit for rinsing the blown containers, a container filling unit, a filled container capping unit, a container labeling unit, an empty or filled container sterilization unit, and a container descent and orientation unit; distribution starwheels for transporting the preforms or containers between the operating units; and a base including an upper plate and a lower plate, wherein all the operating units and the distribution starwheels are placed on the upper plate.

An aseptic apparatus for filling and closing an aluminium receptacle. The aseptic apparatus may include a filling unit, which includes a first chamber, and at least one transfer star-wheel downstream the filling unit. The aseptic apparatus may also include a closures placing station arranged on a first zone of the transfer star-wheel that is located beside the filling unit. The closures placing station may be configured to place a concave closure onto a mouth of each receptacle. The aseptic apparatus may also include a closing unit arranged downstream from the transfer star-wheel. The closing unit may include a second chamber housing a closing machine that is configured to apply each concave closure around a neck of the corresponding receptacle. The first chamber may be at a first pressure and the second chamber may be at a second pressure that is lower than the first pressure.

The invention relates to a method for controlling a production facility of a series of containers from a series of preforms made of plastic materials. The method includes a first step of producing a preliminary series of individual containers from a preliminary series of preforms made of plastic materials. For each individual container produced during a tracking period, the method records (i) a marking that distinguishes said container other containers produced during said tracking period, and (ii) data relative to the production facility, its operation, and/or the preform or container. The method also includes a second step during which one or more physical values of each of the individually identified containers are measured during the first step, and a third step of compiling a database that matches, for each individually identified container, the measurement(s) of the second step, and the series of data acquired during the first step.