Abstract:
A drive assembly for a necker machine includes: a plurality of drive sub-modules, each having an input shaft and a first and second output shaft operatively coupled to the input shaft. For a first sub-module: the input shaft is to be operatively coupled to, and driven by, a main drive motor, and the first output shaft is structured to drive a first drive shaft of a first module of the necker machine. For a second sub-module: the input shaft is operatively coupled to, and driven by, the second output shaft of the first sub-module, and the first output shaft is structured to drive, a first drive shaft of a second module of the necker machine that is separated from the first module by at least one other module.
Abstract:
A rotary manifold (1800) includes a manifold assembly outer body assembly (1810) with a generally toroid outer body (1812), a number of manifold assembly outer body assembly bearing assemblies (1820), a number of seals (1840), and a number of fluid couplings (1860). The manifold assembly outer body assembly body (1812) defines a number of radial passages (1814). A generally toroid manifold assembly inner body (1900) defines a number of right angle passages (1902). The manifold assembly inner body (1900) is rotatably disposed within the manifold assembly outer body assembly body (1812). Each manifold assembly inner body passage inlet (1902)is discontinuously in fluid communication with the manifold assembly outer body assembly body passage outlets (1818). Each manifold assembly inner body passage outlet (1906) is discontinuously in fluid communication with the process shaft assembly body passages inlets (1904).
Abstract:
A quick-change starwheel guide assembly (300) is structured to be coupled to a starwheel guide assembly mounting base (150). The quick-change starwheel guide assembly (300) includes a starwheel guide assembly mounting assembly (310), a starwheel guide assembly support assembly (330), a number of starwheel guide assembly guiderails (350) and a starwheel guide assembly can body height adjustment assembly (370). The starwheel guide assembly mounting assembly (310) is coupled to the starwheel guide assembly support assembly (330). The starwheel guide assembly guiderails (350) are coupled to the starwheel guide assembly mounting assembly (310). The starwheel guide assembly can body height adjustment assembly (370) is coupled to at least one the starwheel guide assembly guiderail (350). At least one of the starwheel guide assembly mounting assembly (310) or the can body height adjustment assembly (370) is a quick-change assembly.
Abstract:
A quick-change starwheel guide assembly (300) is structured to be coupled to a starwheel guide assembly mounting base (150). The quick-change starwheel guide assembly (300) includes a starwheel guide assembly mounting assembly (310), a starwheel guide assembly support assembly (330), a number of starwheel guide assembly guiderails (350) and a starwheel guide assembly can body height adjustment assembly (370). The starwheel guide assembly mounting assembly (310) is coupled to the starwheel guide assembly support assembly (330). The starwheel guide assembly guiderails (350) are coupled to the starwheel guide assembly mounting assembly (310). The starwheel guide assembly can body height adjustment assembly (370) is coupled to at least one the starwheel guide assembly guiderail (350). At least one of the starwheel guide assembly mounting assembly (310) or the can body height adjustment assembly (370) is a quick-change assembly.
Abstract:
A container closure (10) includes a generally planar body (12) having a product side (14) and a customer side (16). The container closure body (12) defines a limited container opening (20) and an actuation location (620). Further, the container body (12) includes a force concentrating construction (200) disposed adjacent the limited container opening (20).
Abstract:
A can bodymaker (10) includes a housing assembly (11), a drive mechanism (14), a ram assembly (12), a domer assembly (22), and a ram body dampening assembly (100). The ram assembly (12) includes an elongated ram body (50). The drive mechanism (14) is operatively coupled to the ram assembly (12) so that the drive mechanism (14) imparts a reciprocating motion to the ram body (50). The ram body dampening assembly (100) is disposed adjacent the ram body (50) path of travel. The ram body dampening assembly (100) includes a housing (102) and a dampening member (104). The dampening member (104) is disposed immediately adjacent the ram body (50) path of travel.
Abstract:
A can end (12) includes a center panel (14), an annular portion (16) disposed about the center panel (14), a chuck wall (18) disposed about the annular portion (16), a curl (20) extending radially outwardly from the chuck wall (18), the annular portion (16) including an annular ridge (52) and an annular countersink (52), the annular countersink (52) disposed adjacent and about the annular ridge (50). The annular countersink (52) and the annular ridge (52) are structured to resist deformation from external or reverse pressure.
Abstract:
A formed blank (10) is provided. The formed blank (10) includes a stretched portion (38) and/or a truncated protrusion (20), a tooling assembly (100) structured to form a formed blank (10) including a stretched portion (38) and/or a truncated protrusion (22), and a method of forming (1000) a formed blank (10) including a stretched portion (38) and/or a truncated protrusion (22). The formed blank (10) includes a base (12) and a depending sidewall (14). The stretched portion (38) and/or the truncated protrusion (22) is disposed on the formed blank base (12) and the thickness of the stretched portion (38) and/or the truncated protrusion (22) is less than the sidewall (14). The stretched portion (38) and/or the truncated protrusion (22) utilizes less material relative to an unformed base that has about the same thickness as the sidewall (14).
Abstract:
A container, such as a beverage or food can is provided, which includes a first sidewall, a second sidewall and a bottom portion extending between the first and second sidewalls. The material of the bottom portion is stretched relative to the first sidewall and the second sidewall to form a thinned preselected profile, such as a dome. The material of the container at or about the dome has a substantially uniform thickness. The container is formed from a blank of material, which has a base gauge prior to being formed. After being formed, the blank of material of the container at or about the dome has a thickness less than the base gauge. Tooling having a clamp bead, or a progressive clamp bead, for selectively forming a blank of material into a container, as well as an associated method are also disclosed.
Abstract:
A shell, a container employing the shell, and tooling and associated methods for forming the shell are provided. The shell includes a center panel, a circumferential chuck wall, an annular countersink between the center panel and the circumferential chuck wall, and a curl extending radially outwardly from the chuck wall. The material of at least one predetermined portion of the shell is selectively stretched relative to at least one other portion of the shell, thereby providing a corresponding thinned portion. The tooling includes a pressure concentrating forming surface.