초록 ▼

A cap chute end for capping a plurality of in-line containers in an ambient atmosphere includes a fluid manifold having a plurality of first manifold apertures for injecting a first fluid into the plurality of containers. A fluid shoe is operatively adjacent the fluid manifold and has a plurality of

A cap chute end for capping a plurality of in-line containers in an ambient atmosphere includes a fluid manifold having a plurality of first manifold apertures for injecting a first fluid into the plurality of containers. A fluid shoe is operatively adjacent the fluid manifold and has a plurality of shoe apertures for dispensing a second fluid into the plurality of caps and plurality of containers. A frame that supports the fluid shoe is configured to receive a plurality of caps at a receiving end of the frame. A wiper supported at a dispensing end of the frame has a pair of arms operatively adjacent the fluid shoe. The pair of arms is configured to orient the plurality of caps to the plurality of containers.

대표청구항 ▼

We claim: 1. A cap chute end subassembly for capping a plurality of in-line containers in an ambient atmosphere, comprising: a fluid manifold having a plurality of first manifold apertures for injecting a first non-oxygen bearing fluid into said plurality of containers; a fluid shoe operatively adj

We claim: 1. A cap chute end subassembly for capping a plurality of in-line containers in an ambient atmosphere, comprising: a fluid manifold having a plurality of first manifold apertures for injecting a first non-oxygen bearing fluid into said plurality of containers; a fluid shoe operatively adjacent said fluid manifold; said fluid shoe having a plurality of shoe apertures for dispensing a second non-oxygen bearing fluid into a plurality of caps and the plurality of containers; wherein said plurality of shoe apertures comprise: a plurality of first shoe apertures that inject said second fluid into said containers; and a second shoe aperture that injects said second fluid into said caps following the injection of said second fluid into said containers a frame that supports said fluid shoe, said frame being configured to receive the plurality of caps at a receiving end of said frame; a wiper supported at a dispensing end of said frame; and a pair of arms operatively adjacent said fluid shoe, said pair of arms being configured to position at least one of the caps for receipt by at least one of the containers and to orient said at least one of the caps to the at least one of the containers. 2. The subassembly of claim 1, wherein said first non-oxygen bearing fluid and said second non-oxygen bearing fluid are the same. 3. The subassembly of claim 1, wherein said first non-oxygen bearing fluid and said second non-oxygen bearing fluid are a gas. 4. The subassembly of claim 1, wherein said pair of arms receives said plurality of caps at said dispensing end of said frame. 5. The subassembly of claim 4, wherein said pair of arms enables said containers to receive said caps. 6. The subassembly of claim 5, wherein said pair of arms holds said caps for injection of said second non-oxygen bearing fluid into said caps. 7. The subassembly of claim 6, wherein said pair of arms hold said caps at an acute angle to planes of openings of said containers. 8. The subassembly of claim 7, wherein said second non-oxygen bearing fluid is directed into said containers upon said second non-oxygen bearing fluid being injected into said caps. 9. The subassembly of claim 7, wherein said wiper places said caps parallel to said planes of openings after said second non-oxygen bearing fluid is injected into said caps. 10. The subassembly of claim 1, wherein said pair of arms are rotatably affixed to the frame. 11. The subassembly of claim 1, wherein said first non-oxygen bearing fluid and said second non-oxygen bearing fluid are a liquid. 12. A cap chute end subassembly for capping a plurality of in-line containers in an ambient atmosphere, comprising: a gas manifold having a plurality of first manifold nozzles for injecting a gas into said plurality of containers; a gas shoe operatively adjacent said gas manifold; said gas shoe having a plurality of first shoe nozzles and a second shoe nozzle; said first shoe nozzles for injecting said gas into said plurality of containers; said second shoe nozzle for injecting said gas into a plurality of caps; a frame that supports said gas shoe; said frame being configured to receive the plurality of caps at a receiving end of said frame; a wiper supported at a dispensing end of said frame; a pair of arms operatively adjacent said gas shoe; and said pair of arms being configured to position at least one of the caps for receipt by at least one of the containers and to orient said plurality of caps such that said gas is directed into said plurality of caps and then into said plurality of containers. 13. The subassembly of claim 12, wherein said first manifold nozzles direct said gas in a direction substantially perpendicular to planes of openings of said plurality of containers. 14. The subassembly of claim 12, wherein said first shoe nozzles direct said gas in a direction substantially perpendicular to planes of openings of said plurality of containers. 15. The subassembly of claim 12, wherein said first shoe nozzles inject said gas into one of said containers after said first manifold nozzles inject said gas into said one of said containers. 16. The subassembly of claim 12, wherein said gas injected into said plurality of caps is subsequently directed into said plurality of containers. 17. The subassembly of claim 12, wherein said plurality of containers are moving in-line at least at about 275 containers per minute. 18. The subassembly of claim 12, wherein said pair of arms are rotatably affixed to the frame.