Abstract: An electrical connector for mechanically and electrically connecting first and second cables, each including an elongate electrical conductor covered by an insulation layer, includes a connector body, an electrically conductive first insulation piercing feature on the connector body, an electrically conductive second insulation piercing feature on the connector body and electrically connected to the first insulation piercing feature, and a compression mechanism. The first insulation piercing feature is configured to pierce through the first insulation layer and electrically engage the first electrical conductor. The second insulation piercing feature is configured to pierce through the second insulation layer and electrically engage the second electrical conductor.

Abstract: An electrical connector for mechanically and electrically connecting first and second cables, each including an elongate electrical conductor covered by an insulation layer, includes a connector body, an electrically conductive first insulation piercing feature on the connector body, an electrically conductive second insulation piercing feature on the connector body and electrically connected to the first insulation piercing feature, and a compression mechanism. The first insulation piercing feature is configured to pierce through the first insulation layer and electrically engage the first electrical conductor. The second insulation piercing feature is configured to pierce through the second insulation layer and electrically engage the second electrical conductor.

Abstract: An electrical connector for forming a mechanical and electrical coupling with an electrical conductor includes a tubular housing, at least one jaw member, a sealant containment membrane, and a sealant. The tubular housing has a connector axis. The housing defines a conductor receiving opening and an interior cavity each configured to receive the conductor along the connector axis. The at least one jaw member is configured to clamp the conductor within the interior cavity. The sealant containment membrane is disposed in the interior cavity and defines a sealant chamber. The sealant is contained in the sealant chamber in the interior cavity to environmentally protect an electrical contact engagement between the conductor and the electrical connector when the conductor is clamped in the interior cavity by the at least one jaw member.

Abstract: An electrical connector for forming a mechanical and electrical coupling with an electrical conductor includes a tubular housing, at least one jaw member, a sealant containment membrane, and a sealant. The tubular housing has a connector axis. The housing defines a conductor receiving opening and an interior cavity each configured to receive the conductor along the connector axis. The at least one jaw member is configured to clamp the conductor within the interior cavity. The sealant containment membrane is disposed in the interior cavity and defines a sealant chamber. The sealant is contained in the sealant chamber in the interior cavity to environmentally protect an electrical contact engagement between the conductor and the electrical connector when the conductor is clamped in the interior cavity by the at least one jaw member.

Abstract: An electrical connector for forming a mechanical and electrical coupling with an electrical conductor includes a tubular housing, at least one jaw member, a sealant containment membrane, and a sealant. The tubular housing has a connector axis. The housing defines a conductor receiving opening and an interior cavity each configured to receive the conductor along the connector axis. The at least one jaw member is configured to clamp the conductor within the interior cavity. The sealant containment membrane is disposed in the interior cavity and defines a sealant chamber. The sealant is contained in the sealant chamber in the interior cavity to environmentally protect an electrical contact engagement between the conductor and the electrical connector when the conductor is clamped in the interior cavity by the at least one jaw member.

Abstract: An electrical connector for forming a mechanical and electrical coupling with an electrical conductor includes a tubular housing, at least one jaw member, a sealant containment membrane, and a sealant. The tubular housing has a connector axis. The housing defines a conductor receiving opening and an interior cavity each configured to receive the conductor along the connector axis. The at least one jaw member is configured to clamp the conductor within the interior cavity. The sealant containment membrane is disposed in the interior cavity and defines a sealant chamber. The sealant is contained in the sealant chamber in the interior cavity to environmentally protect an electrical contact engagement between the conductor and the electrical connector when the conductor is clamped in the interior cavity by the at least one jaw member.

Abstract: A wedge connector assembly for forming an electrical connection with an elongate electrical conductor includes a resilient spring member and a cam wedge member. The spring member defines a spring member channel. The spring member channel has a spring member channel axis and is configured to receive the electrical conductor such that the electrical conductor extends along the spring member channel axis. The cam wedge member is mounted on the spring member such that the cam wedge member is rotatable relative to the spring member about a pivot axis to a locking position wherein the cam wedge member captures the electrical conductor in the spring member channel and elastically deflects the spring member.

Abstract: A wedge connector assembly for forming an electrical connection with an elongate electrical conductor includes a resilient spring member and a cam wedge member. The spring member defines a spring member channel. The spring member channel has a spring member channel axis and is configured to receive the electrical conductor such that the electrical conductor extends along the spring member channel axis. The cam wedge member is mounted on the spring member such that the cam wedge member is rotatable relative to the spring member about a pivot axis to a locking position wherein the cam wedge member captures the electrical conductor in the spring member channel and elastically deflects the spring member.

Abstract: A wedge connector assembly for forming an electrical connection with an elongate electrical conductor includes a resilient spring member and a cam wedge member. The spring member defines a spring member channel. The spring member channel has a spring member channel axis and is configured to receive the electrical conductor such that the electrical conductor extends along the spring member channel axis. The cam wedge member is mounted on the spring member such that the cam wedge member is rotatable relative to the spring member about a pivot axis to a locking position wherein the cam wedge member captures the electrical conductor in the spring member channel and elastically deflects the spring member.

Abstract: An electrical connector assembly for mechanically and electrically connecting first and second cables each including an elongate electrical conductor covered by an insulation layer includes a housing configured to receive the cables, an electrically conductive bus member in the housing, an electrically conductive first and second blade members in the housing each having an inner end, an outer end and an insulation piercing feature on the outer end. The inner ends are coupled to the bus member and the insulation piercing features each include at least one tooth configured to pierce through the insulation covers of the cables and electrically engage the cable conductor. The bus member provides electrical continuity between the first and second blade members and thereby the conductors of the first and second cables when the conductors are engaged by the insulation piercing feature of the first and second blade members.

Abstract: An electrical connector assembly for mechanically and electrically connecting first and second cables each including an elongate electrical conductor covered by an insulation layer includes a housing configured to receive the cables, an electrically conductive bus member in the housing, an electrically conductive first and second blade members in the housing each having an inner end, an outer end and an insulation piercing feature on the outer end. The inner ends are coupled to the bus member and the insulation piercing features each include at least one tooth configured to pierce through the insulation covers of the cables and electrically engage the cable conductor. The bus member provides electrical continuity between the first and second blade members and thereby the conductors of the first and second cables when the conductors are engaged by the insulation piercing feature of the first and second blade members.

Abstract: A wedge connector assembly for forming an electrical connection with an elongate electrical conductor includes a resilient spring member and a cam wedge member. The spring member defines a spring member channel. The spring member channel has a spring member channel axis and is configured to receive the electrical conductor such that the electrical conductor extends along the spring member channel axis. The cam wedge member is mounted on the spring member such that the cam wedge member is rotatable relative to the spring member about a pivot axis to a locking position wherein the cam wedge member captures the electrical conductor in the spring member channel and elastically deflects the spring member.

Abstract: An electrical connector is provided for power conductors including a main conductor and a tap conductor. The assembly includes an upper conductive member having an upper tap conductor arm configured to engage the tap conductor and an upper main conductor arm configured to engage the main conductor. Each of the upper tap conductor arm and the upper main conductor arm includes a deflectable spring. The electrical connector also includes a lower conductive member separately fabricated from the upper conductive member. The lower conductive member includes a lower tap conductor arm configured to engage the tap conductor and a lower main conductor arm configured to engage the main conductor. Each of the lower tap conductor arm and the lower main conductor arm includes a deflectable spring. The upper and lower tap conductor arms oppose each other and are configured to clamp the tap conductor therebetween.

Abstract: Busbar assemblies are disclosed. The busbar assemblies allow electric current to be distributed through electrically conductive cables that are held in contact with a substantially solid conductive bar by a cable retention system that does not require through-holes in the conductive bar and which decrease the bar's current carrying capacity. Further, the cable retention system retains the cables in consistent contact with the bar and resist loosening due to vibration and thermal cycling.

Abstract: Busbar assemblies are disclosed. The busbar assemblies allow electric current to be distributed through electrically conductive cables that are held in contact with a substantially solid conductive bar by a cable retention system that does not require through-holes in the conductive bar and which decrease the bar's current carrying capacity. Further, the cable retention system retains the cables in consistent contact with the bar and resist loosening due to vibration and thermal cycling.

Abstract: An electrical busbar arrangement has provision for connecting a single feeder cable to a plurality of branch cables within an insulating housing. A branch port is provided for each branch cable, and a spring-loaded slidable support plate is arranged to receive the branch cable and to retain it in an aperture thereof. The support plate moves within a cable holder that is driven by a rotatable cam by means of a switch. Operation of the switch between OFF and ON positions is effective to move the branch cable into and out off contact respectively with the busbar. The switches of each port are selectively operable independently of each other. In this way, branch cables may be independently and selectively mounted in the housing and brought into electrical connection with and disconnected from the busbar.