Abstract: A variable displacement reciprocating piston unit includes a sensor probe, a target, a piston having a top dead center position and a bottom dead center position, and a signal processing unit. The sensor probe, the target, and the piston are located in relation to each other so that the target is moved from being absent from the sensor probe to being present at the sensor probe when the piston travels towards the top dead center position, and the target is moved from being present at the sensor probe to being absent from the sensor probe when the piston travels towards the bottom dead center position. The signal processing unit generates a signal indicating a stroke speed and a stroke length of the piston from a signal from the sensor probe indicating a presence and/or an absence of the target as the target moves relative to the sensor probe.

Abstract: A wire harness assembly including a first connector, a second connector, and conductors extending between the first connector and the second connector. Contacts are provided on the second connector. The contacts have termination sections which are mounted on the second connector, compliant sections which extend from the termination sections, and substrate engagement sections which extend from the compliant sections. The substrate engagement sections have curved contact sections which are configured to be positioned in mechanical and electrical engagement with circuit pads of a mating printed circuit board. Embossments are provided on the curved contact sections to provide additional strength and stability to the curved contact sections.

Abstract: A communication system includes a first circuit card assembly having a first PCB and a first electrical connector having a receptacle housing and a mating housing received in the receptacle housing and being movable in the receptacle housing in a connector mating direction along a connector mating axis. The second circuit card assembly includes a second PCB and a second electrical connector having a header housing holding second contacts. The first PCB and/or the second PCB includes a slot receiving the other PCB in a board loading direction. The receptacle housing is coupled to the header housing in the board loading direction and the mating housing is movable within the receptacle housing toward the header housing in a connector mating direction generally perpendicular to the board loading direction.

Abstract: A connector assembly includes a connector module having a connector body with side edges and end edges. The connector body has contact channels holding contacts. The connector assembly includes a mounting frame having side walls and an end wall opposite a window between the side walls. The window is open to and provides access to a passage that receives the connector module. The mounting frame includes a connector module support structure for supporting the connector module in the passage that defines a confined space oversized relative to the connector body of the connector module to allow a limited amount of floating movement in the confined space in a lateral direction that is perpendicular to the mating direction.

Abstract: An electrical connector includes a contact module having a first dielectric frame holding first conductors and a second dielectric frame holding second conductors stacked with the first dielectric frame to form the contact module. The first dielectric frame has insertion loss control windows defining air pockets exposing exposed portions of the corresponding first conductors to air. The size and shape of the insertion loss control windows control insertion loss along the first conductors. The second dielectric frame has insertion loss control windows defining air pockets exposing exposed portions of the corresponding second conductors to air. The size and shape of the insertion loss control windows control insertion loss along the second conductors. The insertion loss control windows of the second dielectric frame are aligned with and are open to the insertion loss control windows of the first dielectric frame.

Abstract: A contact module includes a leadframe having signal contacts arranged in pairs. Each signal contact includes a lead having sides extending between inner and outer edges. The contact module includes a dielectric frame supporting the leadframe having a first side and a second side with windows extending through the dielectric frame between the first side and the second side. The windows exposing to air the sides, the inner edges and the outer edges of the corresponding leads along a majority of lengths of the leads. The contact module includes a shield structure having a first ground shield at the first side and a second ground shield at the second side to provide electrical shielding for the signal contacts.

Abstract: A stacked receptacle connector assembly includes a receptacle cage configured to be mounted to a circuit board, a lower communication connector assembly received in the receptacle cage, and an upper communication connector assembly stacked in the receptacle cage above the lower communication connector assembly. The receptacle cage has a divider between an upper and lower module channels receiving upper and lower pluggable modules. The lower communication connector assembly includes a lower communication connector. The upper communication connector assembly includes a paddle card, an upper communication connector mounted to the paddle card, and a cable assembly having cables electrically connected to the paddle card and extending from the paddle card.

Abstract: An electrical connector assembly which controls cross talk and signal radiation. Signal pathways are provided on modules in a first connector housing, with the signal pathways being arranged in differential pairs. Second ground pathways are positioned between side surfaces of the modules and respective signal pathways of the signal pathways. Signal contacts are positioned in the second connector housing. Second ground contacts are positioned in the second connector housing. The second ground contacts are positioned between side surfaces of the second modules and respective signal contacts of the signal contacts. The second ground pathways engage the second ground contacts of the second modules to balance the differential pairs of signal pathways to optimize impedance and shielding of the signal pathways.

Abstract: A pluggable module assembly includes a housing having a top wall, a bottom wall and sidewalls between the top wall and the bottom wall forming a cavity configured to hold an electrical component therein. The top wall has an opening above the cavity aligned with the electrical component receiving a thermal transfer device that is separate and discrete from the housing. The thermal transfer device transmits heat from the electrical component to fins separated by channels at an upper thermal interface. The upper thermal interface is exposed from above the housing for interfacing with an external heat sink for transferring heat from the thermal transfer device.

Abstract: Clamping device includes a clamp frame that is configured to move between an open configuration, in which the clamp frame is configured to receive at least one longitudinal element, and a closed configuration, in which the clamp frame wraps around and holds the at least one longitudinal element. The clamp frame includes a coupling end having an inner surface and a coupling base having an outer surface. The inner and outer surfaces have profiles that form a locked engagement to hold the clamp frame in the closed configuration. The clamping device also includes a secondary locking mechanism that secures the coupling end and the coupling base to each other. The secondary locking mechanism is activated after the clamp frame is held in the closed configuration by the locked engagement.

Abstract: The invention relates to an electrical connection system (7) for an electrical device, such as an electrical terminal block, said electrical connection system (7) comprising: a conductive bar (21) including an electrical contact region (45) arranged to cooperate with a conductive portion (13?) of an electrical conductor (13) in a connected position, and an engagement zone (35) arranged to engage with a portion (15?) of a support rail (15) in an engaged position; a leaf spring (23); and a retaining device (49) arranged to maintain the engaged position with the portion (15?) of the support rail (15), said retaining device (49) comprising an additional leaf spring (57) equipped with an additional clamping member (57?) arranged to engage with the portion (15?) of the support rail (15) in the engaged position.

Abstract: A fluid sensing system includes a microfluidic chip, multiple sensors, and a communication device. The microfluidic chip includes at least one microfluidic channel extending a length through the microfluidic chip. The microfluidic chip is fluidly connected to a process fluid such that a fluid sample from the process fluid flows through the at least one microfluidic channel. The multiple sensors are operatively connected to the at least one microfluidic channel of the microfluidic chip. The multiple sensors are configured to monitor multiple different properties of the fluid sample within the at least one microfluidic channel. The communication device is operatively connected to the multiple sensors. The communication device is configured to receive data parameters representative of the multiple different properties of the fluid sample from the multiple sensors and wirelessly transmit the data parameters to a remote location.

Abstract: A cable assembly comprising: (a) a ribbon cable having a plurality of optical fibers having endfaces; (b) an elastomeric sheathing being disposed over at least a portion of the ribbon cable and terminating in a sheathing end near the endfaces such that the endfaces protrude beyond the sheathing end; (c) a ferrule having an mating surface presenting the endfaces, and a rear end having a rear opening through which the optical fibers pass, the rear end contacting the sheathing end to form an adhesive tight seal sufficient to prevent liquid adhesive in the ferrule from flowing out of the rear opening; and (d) adhesive disposed in the ferrule to secure the optical fibers to the ferrule.

Abstract: Antenna apparatus includes a dielectric carrier having a first side and a second side. The antenna apparatus also includes a multi-band antenna having an interior surface and an exterior surface. The multi-band antenna includes a first section and a second section that are bent with respect to one another. The interior surface along the first and second sections defines a receiving space. The dielectric carrier is disposed within the receiving space such that the first section is positioned along the first side of the dielectric carrier and the second section is positioned along the second side of the dielectric carrier. The dielectric carrier includes at least one projection that covers a portion of the exterior surface of the multi-band antenna.

Abstract: A charging inlet includes a power terminal and a thermal sensor for monitoring a temperature of the power terminal. The power terminal is configured to releasably engage a mating contact of an external power source. The power terminal includes a cylindrical shaft. The thermal sensor includes a substrate and a sensing element mounted on the substrate. The substrate is flexible and curves along at least a portion of an outer surface of the cylindrical shaft.

Abstract: An electrical connector for use in an electrical connector system which controls cross talk, signal radiation and impedance. The electrical connector includes a plurality of modules having mating ends and mounting ends. Each of the modules of the plurality of modules has a conductive first housing. The first housing has at least one second housing recess and ground contact receiving channels provided in a first surface of the first housing. At least one second housing is provided in the at least one second housing recess. The at least one second housing is made of insulative material and has signal contact receiving channels provided in a first surface of the at least one second housing. Signal contacts are positioned in the signal contact receiving channels of the at least one second housing. Ground contacts are positioned in the ground contact receiving channels of the first housing.

Abstract: Plug assembly including a pluggable connector having a mating end and a trailing end and a central axis extending therebetween. The pluggable connector includes internal electronics that generate thermal energy within the pluggable connector. The mating end is configured to engage a data connector. The pluggable connector also includes a thermal interface region that is coupled to the pluggable connector. The thermal interface region includes a series of transfer plates that extend parallel to each other and to the central axis. The transfer plates define a series of plate-receiving slots extending parallel to the central axis. The thermal interface region transfers the thermal energy generated by the internal electronics through the transfer plates.

Abstract: A bus bar module of a battery system includes a bus bar, a sensing circuit carrier, and a fuse assembly. The bus bar is held by a tray and configured to electrically connect two battery cells of the battery system. The sensing circuit carrier includes at least a first electrical conductor and a dielectric insulator surrounding the first electrical conductor. The fuse assembly includes a first holder terminal, a second holder terminal, and a fuse disposed between and electrically connected to the first and second holder terminals. The first holder terminal is electrically connected to the first electrical conductor of the sensing circuit carrier, and the second holder terminal is electrically connected to the bus bar such that the fuse assembly defines a segment of a voltage sensing line from the bus bar through the sensing circuit carrier towards a control device.

Abstract: A high voltage diagnostic connector includes a housing holding a positive terminal, a negative terminal and a ground terminal with a cover removably coupled to the housing. An HVIL assembly is in the housing having a HVIL contacts and an HVIL shunt. An HVIL switch is held by the housing including a shunt actuator operably coupled to the HVIL shunt to position the HVIL shunt in an un-shunted position to open an HVIL circuit when in the primary position and in a shunted position to close the HVIL circuit when in the secondary position. The shunt actuator is movable between the primary position and the secondary position when testing the positive terminal, the negative terminal and the ground terminal with the testing device during diagnostic testing of the high voltage diagnostic connector.

Abstract: An electrical cable includes a conductor assembly having conductors and an insulator. The electrical cable includes a cable shield wrapped around the conductor assembly having an inner edge at a first end segment and an outer edge at a second end segment. The second end segment is wrapped over the inner edge and the first end segment to form a flap covering the inner edge and the first end segment. The second end segment forms a void at the inner edge. The electrical cable includes a void shield on the outer surface between the insulator and the cable shield. The void shield extends between a first end and a second end. The void shield is aligned with the void and spans entirely across the void. The cable shield is electrically connected to the void shield.