Abstract: A method of forming an electrical connector includes electrically and mechanically connecting at least two modules together and forming a generally continuous, electrically insulative coating over at least part of the connected modules.

Abstract: An electrical connector includes a first jaw having a first set of insulation-piercing elements and a second jaw having a second set of insulation-piercing elements. The first and second sets of insulation-piercing elements are arranged such that at least one row of insulation-piercing elements from the first set of insulation-piercing elements is able to intermesh with at least one row of insulation-piercing elements from the second set of insulation-piercing elements when the first and second jaws are moved towards one another along a z-coordinate.

Abstract: A connector module includes a conductive body configured to receive an end of at least one cable. A clamping member is provided for clamping the end of the cable against an interior wall of the body. A female electrical bus portion extends into a side of the body and is configured to receive a male bus portion of a mating connector module.

Abstract: An electrical connector includes a conductive body having a cavity therein. The cavity is configured to receive an end of a cable. A clamping member is provided for making electrical connection with the end of the cable. A first electrical bus portion is on a first side of the body, and a second electrical bus portion is on a second side of the body.

Abstract: An improved apparatus and method for metal extrusion applications and presses wherein high purity inert and/or partially inert gases are introduced at or near the die exit. The environment at or near the exit is also preferably analyzed and/or monitored on a continual or nearly continual basis. The environment is also preferably controlled to which minimize or eliminate oxidation of metals and other extruded materials. The apparatus and method allow faster extrusion rates, improved surface quality of the extruded materials, and increased die life. In an embodiment, bi-phasic inerting media may also be used.

Abstract: An improved apparatus and method for metal extrusion applications and presses wherein high purity inert and/or partially inert gases are introduced at or near the die exit. The environment at or near the exit is also preferably analyzed and/or monitored on a continual or nearly continual basis. The environment is also preferably controlled to which minimize or eliminate oxidation of metals and other extruded materials. The apparatus and method allow faster extrusion rates, improved surface quality of the extruded materials, and increased die life. In an embodiment, bi-phasic inerting media may also be used.

Abstract: An improved apparatus and method for metal extrusion applications and presses wherein high purity inert and/or partially inert gases are introduced at or near the die exit. The environment at or near the exit is also preferably analyzed and/or monitored on a continual or nearly continual basis. The environment is also preferably controlled to which minimize or eliminate oxidation of metals and other extruded materials. The apparatus and method allow faster extrusion rates, improved surface quality of the extruded materials, and increased die life. In an embodiment, bi-phasic inerting media may also be used.

Abstract: A sacrificial anode and method of making a sacrificial anode are provided. The anode includes an extruded galvanically active metal rod and integrally formed end cap which has a cylindrically shaped portion with a threaded exterior surface. The anode is formed by extruding the rod, forging the end cap from the anchoring end portion of the rod, and machining the outer surface of the end cap to provide threads.

Abstract: A sacrificial anode and method of making a sacrificial anode are provided. The anode includes an extruded galvanically active metal rod and integrally formed end cap which has a cylindrically shaped portion with a threaded exterior surface. The anode is formed by extruding the rod, forging the end cap from the anchoring end portion of the rod, and machining the outer surface of the end cap to provide threads.