Abstract: An electrical cable connector includes a contact subassembly having a center contact, a dielectric holder, and an outer contact. The dielectric holder defines a channel that is open at a top side of the dielectric holder. The center contact has a termination region that is held in the channel. The termination region includes a first cable insulation displacement (CID) feature. The outer contact includes a second CID feature extending from a base wall of the outer contact outside of the dielectric holder. The second CID feature extends into the channel through an aperture in the dielectric holder. The first CID feature engages a core conductor of a cable and the second CID feature engages a shield layer of the cable as the cable is loaded into the channel from above the top side of the dielectric holder.

Abstract: An electrical cable connector includes a contact subassembly having a center contact, a dielectric holder, and an outer contact. The dielectric holder defines a channel that is open at a top side of the dielectric holder. The center contact has a termination region that is held in the channel. The termination region includes a first cable insulation displacement (CID) feature. The outer contact includes a second CID feature extending from a base wall of the outer contact outside of the dielectric holder. The second CID feature extends into the channel through an aperture in the dielectric holder. The first CID feature engages a core conductor of a cable and the second CID feature engages a shield layer of the cable as the cable is loaded into the channel from above the top side of the dielectric holder.

Abstract: An electrical terminal includes a crimp barrel having an interior side and an exterior side. The interior side of the crimp barrel defines a channel that extends along a longitudinal axis. The crimp barrel is configured to mechanically hold and electrically connect to one or more electrical conductors of an electrical device received in the channel. The crimp barrel includes multiple primary serrations spaced apart along the longitudinal axis. The primary serrations are groove-shaped recesses formed along the interior side. Adjacent primary serrations are separated from one another by a band. The crimp barrel further includes at least one micro-serration on the band. Each micro-serration is a groove-shaped recess formed along the interior side that has a smaller size relative to the primary serrations.

Abstract: An electrical cable connector includes a contact subassembly and a housing. The contact subassembly is terminated to an electrical cable. The contact subassembly includes a center contact, a dielectric holder, and an outer contact. The contact subassembly has a protrusion extending outward from an outer surface of the contact subassembly. The housing defines a cavity that receives the contact subassembly therein. The electrical cable extends from the housing through an opening at a rear end of the housing. The housing includes a retention mechanism that engages the protrusion of the contact subassembly to secure an axial position of the contact subassembly in the cavity relative to the housing. The retention mechanism allows the housing to rotate relative to the contact subassembly and the cable.

Abstract: An electrical terminal includes a crimp barrel having an interior side and an exterior side. The interior side of the crimp barrel defines a channel that extends along a longitudinal axis. The crimp barrel is configured to mechanically hold and electrically connect to one or more electrical conductors of an electrical device received in the channel. The crimp barrel includes multiple primary serrations spaced apart along the longitudinal axis. The primary serrations are groove-shaped recesses formed along the interior side. Adjacent primary serrations are separated from one another by a band. The crimp barrel further includes at least one micro-serration on the band. Each micro-serration is a groove-shaped recess formed along the interior side that has a smaller size relative to the primary serrations.

Abstract: A connector position assurance device, an electrical connector and an electrical connector assembly which provides proper connector position assurance of a connector assembly of small size. The connector position assurance device has a base portion, a first beam and a second beam. The first and second beams extend from the base portion. The base portion includes a latch engagement protrusion. A first beam has a first connector engagement protrusion and a second beam has a second connector engagement protrusion. The first and second connector engagement protrusions are resiliently actuated as the plug is mated to the header. The first and second connector engagement protrusions and the latch engagement protrusion cooperate with the plug when the plug is fully mated to the header to prevent the inadvertent removal of the plug from the header.

Abstract: An electrical connector assembly includes a header having a body having a first receptacle and a second receptacle separated by a midwall and a plurality of contacts held by the midwall. The contacts have first pins located within the first receptacle and second pins located within the second receptacle. A first plug is received in the first receptacle. The first plug includes a housing holding a plurality of terminals terminated to corresponding wires having sockets mated with corresponding first pins in the first receptacle. The sockets are configured to be electrically connected to sockets of a second plug received in the second receptacle by the contacts held by the header.

Abstract: A connector position assurance device, an electrical connector and an electrical connector assembly which provides proper connector position assurance of a connector assembly of small size. The connector position assurance device has a base portion, a first beam and a second beam. The first and second beams extend from the base portion. The base portion includes a latch engagement protrusion. A first beam has a first connector engagement protrusion and a second beam has a second connector engagement protrusion. The first and second connector engagement protrusions are resiliently actuated as the plug is mated to the header. The first and second connector engagement protrusions and the latch engagement protrusion cooperate with the plug when the plug is fully mated to the header to prevent the inadvertent removal of the plug from the header.

Abstract: An electrical connector assembly includes a header having a body having a first receptacle and a second receptacle separated by a midwall and a plurality of contacts held by the midwall. The contacts have first pins located within the first receptacle and second pins located within the second receptacle. A first plug is received in the first receptacle. The first plug includes a housing holding a plurality of terminals terminated to corresponding wires having sockets mated with corresponding first pins in the first receptacle. The sockets are configured to be electrically connected to sockets of a second plug received in the second receptacle by the contacts held by the header.

Abstract: A receptacle contact includes a resilient contact arm having at least one contact area for contacting a mating contact. A support arm is stamped and formed from an area of a wall of the receptacle contact. The support arm cooperates with the resilient contact arm to support the resilient contact arm. An overstress member is provided on the wall of the receptacle contact. The overstress member is formed to extend into the area of the wall from which the support arm was formed. The overstress member cooperates with the support arm to prevent the support arm from being moved beyond the overstress member and beyond the area of the wall from which the support arm was formed, thereby ensuring that the resilient contact arm and the support arm will provide sufficient normal force to maintain a mechanical and electrical engagement with a mating contact.

Abstract: A receptacle contact includes a resilient contact arm having at least one contact area for contacting a mating contact. A support arm is stamped and formed from an area of a wall of the receptacle contact. The support arm cooperates with the resilient contact arm to support the resilient contact arm. An overstress member is provided on the wall of the receptacle contact. The overstress member is formed to extend into the area of the wall from which the support arm was formed. The overstress member cooperates with the support arm to prevent the support arm from being moved beyond the overstress member and beyond the area of the wall from which the support arm was formed, thereby ensuring that the resilient contact arm and the support arm will provide sufficient normal force to maintain a mechanical and electrical engagement with a mating contact.

Abstract: An electrical connector for mating with a mating electrical connector. The electrical connector has a surface having a first reference member and a latch having a second reference member. The first reference member and the second reference member are positioned to indicate when the electrical connector is fully mated to the mating electrical connector.

Abstract: A storage token has a display and a keyboard, or other input device, that allows a user to view a request to access a memory location and enter a response to the request. The display allows presentation of details of the request, such as a pathname to a requested memory location, metadata describing a cryptographic key for use in a transaction confirmation, and/or transaction details which are awaiting verification by a credential stored on the token. The storage token may also include a cryptographic engine and a secure memory allowing signing data returned in response to the request.

Abstract: A receptacle contact for receipt of a mating contact and a method therefore. The receptacle contact has side walls, each of the side walls has an opening provide therein. A resilient contact arm extends between the side walls. Projections extend from the resilient contact arm and extend through the openings of the side walls. A weak area is provided on the resilient contact arm, the weak area positioned between the fixed end and the projections. The projections engage a wall of the opening as the mating contact is inserted into the receptacle contact, causing the at least one contact area to become fixed and allowing the weak area to move into engagement with the mating contact, thereby providing multiple areas of contact between the resilient contact arm and the mating contact.

Abstract: Systems and methods for providing movement to seating including theater seating generate complex motion responses in the seating by automatically analyzing an audio component of media being consumed for one or more aspects of the audio information contained in the audio component at certain frequencies or frequency ranges. The aspects analyzed include aspects relating to frequencies and frequency ranges substantially higher than the low-frequency signals used to drive motion of theater seating. From the analysis of the audio aspects contained in the audio component, a plurality of independent low-frequency output signals is generated. The plurality of independent low-frequency output signals is directed to a plurality of individual actuators incorporated into different locations in a seat to provide sensations of motion at different locations of the seat, such as at a seat location, at a lower back location, and at an upper back location.

Abstract: A header connector includes a housing configured to be mounted to a mounting surface of the circuit board and header contacts held by the housing. The header contacts have mating portions and mounting portions. The mounting portions are configured to be surface mounted to corresponding pads on the circuit board. A spring clip is coupled to the housing. The spring clip has a spring finger extending through the circuit board to engage a bottom side of the circuit board opposite the mounting surface of the circuit board. The spring clip pulls the housing and header contacts toward the mounting surface.

Abstract: An electrical connector for mating with a mating electrical connector. The electrical connector has a surface having a first reference member and a latch having a second reference member. The first reference member and the second reference member are positioned to indicate when the electrical connector is fully mated to the mating electrical connector.

Abstract: An occipital plate may include a central section, a pair of angled sections, and attachment assemblies comprising slide members configured to move along slots in the angled sections, and posts coupled to the slide members. Each post has a first and second cross dimensions. The first cross dimension of each post is less than a first cross dimension of a slide member. The second cross dimension of each post is approximately equal to a second cross dimension of a slide member. Rods may be coupled to the occipital plate at a variety of angles with respect to a midline of the plate. The angular adjustability may accommodate any misalignments in the rods. Further, the position of the attachment assemblies relative to the midline is adjustable to thereby provide for medial-lateral adjustability when attaching the rods to the occipital plate as part of an occipito-cervico-thoracic construct.

Abstract: A header connector includes a housing configured to be mounted to a mounting surface of the circuit board and header contacts held by the housing. The header contacts have mating portions and mounting portions. The mounting portions are configured to be surface mounted to corresponding pads on the circuit board. A spring clip is coupled to the housing. The spring clip has a spring finger extending through the circuit board to engage a bottom side of the circuit board opposite the mounting surface of the circuit board. The spring clip pulls the housing and header contacts toward the mounting surface.

Abstract: A conveyor belt monitoring system is disclosed that uses sensors to measure magnetic disruptions (“events”) in a conveyor belt which are indicative of one or more splice joints, rip panels and reinforcing cord damage. The system may comprise a plurality of sensing components, including coils or Hall Effect sensors for sensing rip panels, splices and generalized reinforcing cord damage. The system may also have RFID-based rip panels and may use RFID chips to identify various belt components. A PLC-based control system may communicate with the aforementioned components via an Ethernet link. Data received by the control system is used to chart belt wear and damage trends and to provide user alarms when signal levels exceed predetermined norms. The system may stop the belt when imminent belt failure is predicted. The PLC-based control system is highly scalable and will integrate easily into existing conveyor control systems and facility-wide monitoring systems.