Abstract: A precision high cyclic rate metal forming toolpack is disclosed for ironing processes used to produce can or other bodies and preforms of ultra-high precision. An example of the toolpack provides improved centering, dampening and force attenuation response. In an example, the toolpack may be implemented with integrated feedback communication and sensoring. An example of the toolpack also provides unified coolant distribution, including enhanced locational intelligence of infinitely variable tooling positions. An example of the toolpack also provides improved axial and longitudinal articulation for improved tool tracking and floatation. The toolpack may enable improved product quality, throughput, manufacturing efficiency, reduced costs, and reduced labor.

Abstract: A precision high cyclic rate metal forming toolpack is disclosed for ironing processes used to produce can or other bodies and preforms of ultra-high precision. An example of the toolpack provides improved centering, dampening and force attenuation response. In an example, the toolpack may be implemented with integrated feedback communication and sensoring. An example of the toolpack also provides unified coolant distribution, including enhanced locational intelligence of infinitely variable tooling positions. An example of the toolpack also provides improved axial and longitudinal articulation for improved tool tracking and floatation. The toolpack may enable improved product quality, throughput, manufacturing efficiency, reduced costs, and reduced labor.

Abstract: A precision high cyclic rate metal forming toolpack is disclosed for ironing processes used to produce can or other bodies and preforms of ultra-high precision. An example of the toolpack provides improved centering, dampening and force attenuation response. In an example, the toolpack may be implemented with integrated feedback communication and sensoring. An example of the toolpack also provides unified coolant distribution, including enhanced locational intelligence of infinitely variable tooling positions. An example of the toolpack also provides improved axial and longitudinal articulation for improved tool tracking and floatation. The toolpack may enable improved product quality, throughput, manufacturing efficiency, reduced costs, and reduced labor.

Abstract: A punch sleeve utilized in forming metallic containers, including food and beverage containers, is provided. The punch sleeve comprises two or more different surface textures. In one embodiment, the outer surface of the punch sleeve comprises three regions and each region has a different surface texture. Additionally, a method of texturing two or more different surface textures on an exterior surface of a punch sleeve used in a metallic container manufacturing process is provided. An apparatus for providing two or more surface textures on a punch sleeve used in a metal container manufacturing process is also provided.

Abstract: A punch sleeve utilized in forming metallic containers, including food and beverage containers, is provided. The punch sleeve comprises two or more different surface textures. In one embodiment, the outer surface of the punch sleeve comprises three regions and each region has a different surface texture. Additionally, a method of texturing two or more different surface textures on an exterior surface of a punch sleeve used in a metallic container manufacturing process is provided. An apparatus for providing two or more surface textures on a punch sleeve used in a metal container manufacturing process is also provided.