Abstract: A cable assembly includes a cable including a wire and an insulator surrounding the wire extending a length between a first end and a second end and being conductive, where the wire having a first stiffness. The cable assembly includes a sleeve surrounding the cable between the first end and the second end having an interior surface facing the cable and an exterior surface facing an exterior environment of the cable assembly. The cable assembly includes a cable stiffener coupled to the sleeve extending along at least a portion of the length of the cable. The cable stiffener is formable into shape retaining shape and has a second stiffness greater than the first stiffness to hold the cable in the shape retaining shape.

Abstract: A differential pair cable assembly includes a cable having a twin axial cable core including first and second conductors conveying differential signals and a cable shield. The cable assembly includes first and second contacts and a housing holding the first and second contacts. The cable assembly includes a shield having a shield cavity that receives the housing and the end of the cable and is electrically connected to the cable shield. The shield provides electrical shielding for the first and second contacts. The shield, the housing, and the contacts define a mating interface of the cable assembly configured to be mated to a mating component.

Abstract: A charging system includes a power cable and a cooling tube. The power cable extends from a charging inlet to a battery pack to electrically connect the charging inlet to the battery pack. The charging inlet is configured to releasably couple to a mating connector of an external power source. The power cable includes a conductive core, an insulating layer surrounding the conductive core, and a metallic shield layer surrounding the insulating layer. The cooling tube is connected to a heat sink and extends along a length of the power cable. The cooling tube engages the metallic shield layer of the power cable to transfer heat from the power cable to the heat sink.

Abstract: A cutting system is disclosed. The cutting system comprises a moving mechanism, a cutter mounted on the moving mechanism, a support table having a material plate disposed thereon, and a fixation device including a pressing plate having a row of teeth defining a row of teeth slots. The row of teeth press the material plate on the support table while the moving mechanism drives the cutter to move along edges of the row of teeth slots. The cutter cuts a plurality of workpieces out of the material plate by a single cutting process.

Abstract: A feedthrough capacitor assembly including a film-wound feedthrough capacitor and a mounting structure insulatively carrying the capacitor, the structure extendable through an opening in a conductive substrate and removably securable to the substrate. In response to opposed ends of the mounting structure applying a clamping force for non-movingly securing the capacitor to the substrate, the capacitor is not subjected to at least a portion of the clamping force.

Abstract: A method of regulating the operation of an electrical system. The electrical system includes, a load, at least one sensor coupled to the load configured to measure at least one characteristic of the load, a solenoid having at least one coil, at least one sensor coupled to the solenoid coil configured to measure at least one characteristic of the coil. A control circuit is coupled to the at least one load sensor and the at least one coil sensor, and includes a memory. The method includes receiving, by the control circuit, at least one load characteristic from the at least one load sensor, determining, by the control circuit, a force sufficient to maintain an electrical contact, based on the at least one load characteristic, and regulating, by the control circuit, a coil current, based on the force and based on the at least one characteristic of the coil.

Abstract: A single-piece multi-fiber ferrule interconnect assembly including a ferrule body having a main surface, a front frame, and a rear opening, wherein the front frame includes a front face and a back face; a plurality of lenses arranged to form a lens array, wherein the lenses are fabricated within the front frame and recessed from the front face; a plurality of grooves on the main surface for receiving a plurality of optical fibers, the grooves extending from the back face toward the rear opening, wherein each groove comprises a terminus located at the focal point of a corresponding lens on the front frame; a well located on the main surface along the back face of the front frame, wherein inside edges of the well are curved and wherein the well is capable of accommodating an epoxy; and a plurality of guide pin passageways on the ferrule body each having a pin aperture for receiving alignment pins from a complementary ferrule body, wherein the pin aperture and the alignment pin from the complementary ferrule bod

Abstract: A cable assembly includes a cable having a cable core including a first signal conductor and a first insulator around the first signal conductor. The first signal conductor includes an exposed segment at an end of the cable extending forward of the first insulators. The cable includes a cable shield surrounding the cable core providing electrical shielding along a length of the cable and having an exposed segment proximate to the end of the cable. A conductive film is wrapped around the exposed segment of the cable shield being electrically connected to the cable shield. A cable ferrule is coupled to the end of the cable being wrapped around the conductive film and being electrically connected to the conductive film. The cable ferrule is electrically connected to the cable shield through the conductive film.

Abstract: An automatic calibration method for a robot system comprises providing a ball-rod member including a connection rod and a sphere connected to a first end of the connection rod, fixing an opposite second end of the connection rod to an end execution tool mounted on a flange of a robot, and controlling the robot to move a center of the sphere to a same target point in a plurality of different poses under the guidance of a vision sensor. A transformation matrix of the center of the sphere with respect to a center of the flange is calculated based on pose data of the robot at the same target point. A transformation matrix of a center of the end execution tool with respect to the center of the flange is calculated according to a formula.

Abstract: A cable connector includes a twin-axial cable having a first conductor and a second conductor within a core of the cable. The cable connector includes first and second signal contacts including cable terminals terminated to the conductors and substrate terminals generally perpendicular to the cable terminals and terminated to a substrate. The cable connector includes a contact holder having a body encasing portions of the first and second signal contacts. The contact holder has a front and a rear, and a top and a bottom. The cable terminals are arranged proximate to the rear for termination to the cable. The cable extends from the rear of the contact holder. The substrate terminals are exposed at the bottom for termination to the substrate.

Abstract: Electromechanical switch includes first and second stationary contacts. Each of the first and second stationary contacts has a respective mating end. The electromechanical switch also includes a movable contact having first and second contact zones. The first and second contact zones are separate regions of the movable contact that are operable to be covered by the respective mating ends of the first and second stationary contacts, respectively. Each of the first and second contact zones has a mating surface and a corresponding recess that divides at least a portion of the mating surface. Each of the respective mating ends is configured to extend across the corresponding recess and engage the corresponding mating surface on opposite sides of the corresponding recess. The corresponding recess has a depth that extends only partially into the movable contact.

Abstract: System includes a first object having an energy-assisted bonding (EAB) mechanism along a surface of the first object. The EAB mechanism includes a heat-activatable adhesive layer and a carbon-filled (CF) sheet material. The CF sheet material is electrically conductive for resistive heating. A control sub-system is configured to control a coupling actuator to drive an actuator body toward the first object, wherein the actuator body and the first object engage each other. The coupling actuator is configured to apply pressure to the EAB mechanism along the surface of the first object. The control sub-system is also configured to control the power source to apply a current through the CF sheet material of the EAB mechanism to provide thermal energy through resistive heating that activates the adhesive layer along the interface.

Abstract: An electrical connector includes a housing, signal contacts, and ground shields. The housing has a base wall that defines openings therethrough. The signal contacts are arranged in pairs and project through at least some of the openings beyond a top side of the base wall. The ground shields project through at least some of the openings beyond the top side of the base wall. Each ground shield has at least two walls and at least partially surrounds a corresponding pair of the signal contacts. Each ground shield has an inner side that faces the corresponding pair of signal contacts and an outer side that is opposite the inner side. The outer sides of the ground shields have a lossy coating to absorb electrical resonances, and the inner sides of the ground shields lack the lossy coating.

Abstract: A panel mount connector assembly includes a panel mount bracket having a cavity with a front opening. The assembly includes a connector movably received in the cavity holding contacts at a mating end and cables extending from a cable end. The assembly includes a biasing mechanism received in the cavity engaging the connector and forward biasing the connector in the cavity. The biasing mechanism has a biasing force exceeding a mating force with the mating connector such that the connector remains forward biased in the cavity during mating with the mating connector. The biasing mechanism allows the connector to move rearward when the biasing force is exceeded.

Abstract: A termination machine includes a ram, a shearing arm, and a toggle mechanism. The ram moves reciprocally relative to a stationary anvil between an extended position and a retracted position during a crimp stroke and crimps a terminal against the anvil while moving towards the extended position. The shearing arm is mounted to the ram and moves with the ram along a portion of the crimp stroke. The shearing arm includes a blade at a distal end thereof and a post projecting laterally from the shearing arm. The toggle mechanism is operatively connected to the post of the shearing arm. The toggle mechanism selectively toggles the shearing arm between a cutting position and a non-cutting position of the shearing arm relative to the ram. The blade of the shearing arm projects farther beyond a crimp end of the ram in the cutting position than in the non-cutting position.

Abstract: A communication system includes a host circuit board and an interposer assembly coupled to the host circuit board having an interposer substrate including an upper surface and a lower surface. The interposer assembly has host circuit board contacts electrically connected to contact pads of the host circuit board and cable assembly contacts coupled to a pluggable module. The pluggable module includes a mating interface along a bottom of the pluggable module facing the interposer assembly. The pluggable module includes a cable assembly having a cable at the cable end. The cable has a signal conductor and a ground conductor being electrically connected to corresponding cable assembly contacts of the interposer assembly at the upper surface of the interposer substrate.

Abstract: A card edge connector assembly includes a card edge connector having a housing defining a card slot and holding contacts to electrically connect to a pluggable module and a host circuit board. The card edge connector assembly includes a guide cover having a main body including a first side wall between first and second end walls. The main body defines a center cavity receiving the housing and the pluggable module. The guide cover has a first alignment channel between the center cavity and the first end wall and a second alignment channel between the center cavity and the second end wall. The alignment channels are configured to receive alignment posts of the pluggable module prior to the card slot receiving the pluggable module.

Abstract: A communication system includes a host circuit board, a receptacle assembly mounted to the host circuit board having a cage member defining a module cavity, and a pluggable module having a pluggable body loaded into the module cavity. The pluggable body has a mating interface along a bottom of the pluggable body facing the host circuit board. The pluggable module has a cable assembly having a cable and a cable connector at an end of the cable including signal contacts held by a contact holder that are terminated to signal conductors of the cable. The signal contacts have deflectable spring beams and mating interfaces along the deflectable spring beams exposed at the mating interface of the pluggable body to engage and directly mate with corresponding signal pads of the host circuit board.

Abstract: A light sensor assembly includes a sensor connector configured to be coupled to a receptacle connector mounted to a light fixture. The sensor connector includes a housing having a top and a bottom defining a mating interface configured to be mated to the receptacle connector. The housing has a sealed cavity including a first sensor component in the sealed cavity sensing an environmental characteristic exterior of the sensor connector. The sensor connector includes power contacts held by the housing and extending from the bottom for electrical connection with receptacle power contacts of the receptacle connector. The sensor connector includes a lid assembly at the top of the housing. The lid assembly has a lid defining an unsealed cavity allowing airflow through the unsealed cavity. The lid assembly has a second sensor component in the unsealed cavity sensing an environmental characteristic exterior of the sensor connector.

Abstract: A power connector assembly includes a power rail and a slide power connector. The power rail is mounted to a first wall of a first component via mechanical standoffs to define a clearance space between the power rail and the first wall. An electrode is disposed along a first side of the power rail facing the first wall. The slide power connector is mounted to a second wall of a discrete, second component. The slide power connector defines a track that receives the power rail therein. At least one power contact of the slide power connector is disposed within the clearance space and is electrically connected to the electrode of the power rail to establish an electrical connection. At least one of the first and second components is movable relative to the other along an extension cycle. The electrical connection is maintained throughout the extension cycle.