An apparatus for manufacturing a liquid container, in which a nozzle unit has a seal body disposed in a supply path, the seal body has an annular first seal portion, an annular second seal portion and a spare supply path extending from a flow inlet located between the first seal portion and the second seal portion to a flow outlet located closer to a tip side of the seal body than the second seal portion, and the seal body can move between a blocked position where the first seal portion sits on the supply path, a spare supply position where the first seal portion separates from the supply path and the second seal portion sits on the supply path and an open position where the first seal portion separates from the supply path and the second seal portion separates from the supply path.

Provided is a core-sheath composite fiber which is easily moldable into a composite material or the like and is also excellent in strength. The core-sheath composite fiber comprises a core member containing polyamide and a sheath member containing modified polyethylene, and the core member has a melting point higher by at least 170 C. than a melting point of the sheath member.

Methods for manufacturing a plastic container and for filling it with a fill product are described. The methods include introducing a perform into a blow mold, pressuring the preform with a blowing medium, evacuating the interior space of the container to an underpressure, and introducing a fill product in the interior space at an overpressure.

Methods for manufacturing a plastic container and for filling it with a fill product are described. The methods include introducing a perform into a blow mold, pressuring the preform with a blowing medium, evacuating the interior space of the container to an underpressure, and introducing a fill product in the interior space at an overpressure.

The invention relates to a method and to an apparatus for applying dry air to a blow mold (4) arranged on a rotating blowing wheel of a blowing station (3) for blow molding containers (2) from thermoplastic, wherein dry air is collected in a collecting container (39) arranged to be offset radially inward with respect to the blow mold (4) on the blowing wheel (25), and the dry air from the collecting container (39) is discharged and directed to a surface of the blow mold (4) with a directional component pointing radially outward relative to the blowing wheel.

Mold base including a base wall and a peripheral side wall which is connected to the base wall by a fillet, this mould base ending with a peripheral upper edge and including ribs forming cavities for grooves for strengthening the base of a container to be formed and which each straddle the fillet, this mould base also including decompression vents hollowed out of the moulding face and which include, for each rib, at least one pair of shallow side channels which extend on either side of the rib and open, at an upper end, on to the peripheral upper edge.

Mold base including a base wall and a peripheral side wall which is connected to the base wall by a fillet, this mould base ending with a peripheral upper edge and including ribs forming cavities for grooves for strengthening the base of a container to be formed and which each straddle the fillet, this mould base also including decompression vents hollowed out of the moulding face and which include, for each rib, at least one pair of shallow side channels which extend on either side of the rib and open, at an upper end, on to the peripheral upper edge.

A liquid forming and filling system for filling a container with a liquid. The liquid forming and filling system having a motor, a gear box operably coupled to the motor configured to receive a driving output from the motor and outputting a gear box driving force, a linear screw operably coupled to the gear box configured to produce linear movement in response to rotational movement from the gear box, a forming cylinder configured to output pressurized liquid for forming and filling the container, the forming cylinder being in an inverted orientation, a top manifold plate and end cap vent valve assembly coupled to the forming cylinder for receiving the pressurize liquid, and a vent valve operably coupled to the top manifold plate and end cap vent valve assembly configured to vent air entrapped within the pressurized liquid.

A liquid forming and filling system for filling a container with a liquid. The liquid forming and filling system having a motor, a gear box operably coupled to the motor configured to receive a driving output from the motor and outputting a gear box driving force, a linear screw operably coupled to the gear box configured to produce linear movement in response to rotational movement from the gear box, a forming cylinder configured to output pressurized liquid for forming and filling the container, the forming cylinder being in an inverted orientation, a top manifold plate and end cap vent valve assembly coupled to the forming cylinder for receiving the pressurize liquid, and a vent valve operably coupled to the top manifold plate and end cap vent valve assembly configured to vent air entrapped within the pressurized liquid.

Systems and methods for making a reduced material container are provided that hold a preform adjacent to an open end of the preform, stretch the preform, close a mold about the stretched preform to form a truncated preform, and introduce a pressurized fluid into the truncated preform to expand the truncated preform and form the reduced material container. A stretch rod can be inserted into the preform to mechanically stretching the preform. The mold accepts the preform at a first end thereof, has an open state and a closed state, and the closed state forms a cavity defining an internal surface having a second end located remotely from the first end. A first length is defined by a distance between the first end and the second end, the stretch rod mechanically stretching the preform to a second length, the second length being greater than the first length.