A container manufacturing device for performing manufacture of a pre-form and a container in a single station via one stop is provided. The container manufacturing device includes a pre-form molding module configured to form a shape of a pre-form of a container using a resin material, an injection module connected to the pre-form molding module and configured to supply the resin material to the pre-form molding module, a container molding module configured to inject air to the pre-form to expand the pre-form and to form the shape of the container and including a container mold, and a rotary table with a rib plate suspended thereon while rotating between the pre-form molding module and the container molding module, the pre-form or the container being mounted on the rib plate.

A fabric coated or impregnated with an elastomeric material may include a polyurethane dispersion layer combined with a sealant. The fabric may be applied in such a fashion so as to enable the elimination of solvent or fluid that is associated with the elastomer. The polyurethane dispersion layer generally comprises an elastomeric material dispersed or dissolved in a liquid medium, such as, but not limited to, water. At the same time, the integrity of the elastomeric composite which is formed from the dispersion and sealant layers may be maintained in order to minimize the presence of air voids and pockets. It has thus been realized that in doing so the performance of the self-sealing volume is dramatically improved. This method of construction usually may be accomplished without significantly adding to the weight or thickness of the volume and without affecting the outer dimension of the self-sealing volume.

A tank that includes a tank wall composed of a plastic material, and at least one reinforcing profile member configured to minimize deformation of the plastic tank. The at least one reinforcing profile member is configured for arrangement on an outer side of the tank wall to be engaged by the tank wall and establish a positive material bond connection therewith. The at least one reinforcing profile member has a retaining geometry region with a plurality of openings through and/or into which material of the tank wall extends and onto a rear side of the reinforcing profile member facing away from the tank wall to thereby establish the positive material bond connection between the tank wall and the at least one reinforcing profile member at the retaining geometry region.

A tank that includes a tank wall composed of a plastic material, and at least one reinforcing profile member configured to minimize deformation of the plastic tank. The at least one reinforcing profile member is configured for arrangement on an outer side of the tank wall to be engaged by the tank wall and establish a positive material bond connection therewith. The at least one reinforcing profile member has a retaining geometry region with a plurality of openings through and/or into which material of the tank wall extends and onto a rear side of the reinforcing profile member facing away from the tank wall to thereby establish the positive material bond connection between the tank wall and the at least one reinforcing profile member at the retaining geometry region.

Provided is an apparatus for transforming plastic preforms into plastic containers having at least one transforming station which has a blow molding device, within which the plastic preforms are able to be transformed into the plastic containers by application with a flowable medium, having an application device which applies the flowable medium to the plastic preforms and having a stretching device which has a rod-like body which is able to be introduced into the plastic preforms, in order to stretch the plastic preforms at least temporarily during their transforming process in the longitudinal direction thereof, wherein the stretching device has a drive device for moving the rod-like body as well as a control device for controlling the drive device and wherein the apparatus has a valve arrangement which controls the application of the plastic preforms with the flowable medium with at least two different pressure levels.

Provided is an apparatus for transforming plastic preforms into plastic containers having at least one transforming station which has a blow molding device, within which the plastic preforms are able to be transformed into the plastic containers by application with a flowable medium, having an application device which applies the flowable medium to the plastic preforms and having a stretching device which has a rod-like body which is able to be introduced into the plastic preforms, in order to stretch the plastic preforms at least temporarily during their transforming process in the longitudinal direction thereof, wherein the stretching device has a drive device for moving the rod-like body as well as a control device for controlling the drive device and wherein the apparatus has a valve arrangement which controls the application of the plastic preforms with the flowable medium with at least two different pressure levels.

Systems and methods for altering the typical rotary Blow-Fill-Seal (BFS) machine manufacturing process to implement a staged or phased vacuum application to the BFS molds.

Systems and methods for altering the typical rotary Blow-Fill-Seal (BFS) machine manufacturing process to implement a staged or phased vacuum application to the BFS molds.

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.