Abstract: An electrical connector includes a housing including a front housing and a rear housing matable to define the housing. The front housing and the rear housing are molded as a single piece with a hinge member connecting the front housing and the rear housing. The rear housing is rotatable about the hinge member from an open position to a closed position. The front housing has front terminal channels configured to receive terminals and the rear housing has rear terminal channels aligned with the front terminal channels when the rear housing is rotated to the closed position but not aligned with the front terminal channels when the rear housing is in the open position. The rear terminal channels are configured to allow the terminals to at least partially pass therethrough into the front terminal channels during loading of the terminals into the housing.

Abstract: An electrical connector assembly includes a cage member having a plurality of walls comprising side walls and an end wall defining a port configured to receive a pluggable module that is electrically connected to a communication connector housed within the cage member. The port has an airflow channel along the end wall allowing airflow through the port along the pluggable module. Standoff features extend from at least one of the end wall and the side walls. The standoff features extend into the airflow channel and are configured to engage the pluggable module and locate the pluggable module relative to the communication connector for mating thereto and locate the pluggable module relative to the airflow channel.

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 electronic module package including an electronic module configured to receive input signals and process the input signals to provide output signals. The electronic module package also includes an interposer that has a substrate with opposite board and module surfaces. The electronic module is mounted to the module surface. The interposer includes electrical contacts along the module surface that are communicatively coupled to the electronic module through the substrate. The electronic module package also includes a connector receptacle having a receptacle housing coupled to the interposer. The receptacle housing defines a reception space that is located over and permits access to the electrical contacts. The connector receptacle is configured to receive an electrical connector within the reception space to electrically couple the electrical contacts and the electrical connector. The connector receptacle holds the electrical connector therein in a mated position.

Abstract: An electrical connector includes a housing stack, signal and ground conductors, and an electrically conductive ground bracket. The housing stack comprises a front housing and a rear housing. The front housing defines a mating end of the housing stack, and the rear housing defines a mounting end of the housing stack. The housing stack defines signal cavities and ground cavities that extend continuously through the front housing and the rear housing. The signal conductors and ground conductors are held in the signal cavities and ground cavities, respectively, of the housing stack. The signal conductors are arranged in signal pairs, and the ground conductors are interleaved between the signal pairs. The ground bracket is held in the housing stack between the front housing and the rear housing. The ground bracket engages and is electrically connected to each of the ground conductors to electrically common the ground conductors along a ground plane.

Abstract: An electronic device includes a dielectric substrate having a first surface, a conductive circuit deposited on the first surface and having a printed conductive ink trace on the first surface, and a conductive interposer mechanically coupled to the substrate. The conductive interposer is electrically coupled to the conductive circuit. The conductive interposer has a separable contact interface configured to be mechanically and electrically connected to a removable contact. Optionally, the conductive interposer may include a main body and a flexible element extending between the main body and the conductive circuit. The flexible element electrically connects the conductive circuit with the main body.

Abstract: A connector system includes a cavity configured to hold a connector module. The cartridge has a port opening to the cavity. The cartridge removably receives the connector module through the port. The connector system also includes an ejector mechanism. The ejector mechanism has a slider latch movable in a longitudinal direction relative to the cartridge. The slider latch has a profiled groove configured to cam therein. The slider latch has a linear gear. The ejector mechanism includes a rotatable handle having a circular gear configured to engage the linear gear to cause the slider latch to move as the rotatable handle is rotated between a closed position and an open position. The profiled groove engages the cam to secure the connector module to the connector assembly when the rotatable handle is in the closed position and unlock the connector module when in the open position.

Abstract: Cable connector including a connector body extending along a longitudinal axis between a mating side and a loading side of the connector body. The connector body is oriented with respect to a mating axis that is perpendicular to the longitudinal axis. The cable connector also includes electrical conductors having body segments that extend through the connector body between the mating and loading sides and contact beams that project from the mating side. The contact beams have mating interfaces that are configured to directly engage corresponding electrical contacts of a mating component during a mating operation. The contact beams are shaped to extend along the longitudinal axis away from the mating side and along the mating axis such that the mating interfaces form a two-dimensional (2D) array that is oriented substantially perpendicular to the mating axis.

Abstract: An electrical connector includes a housing having a first end and a second end. The housing has a mating slot formed between the first and second ends configured to receive a mating connector having contact pads. A contact array is received in the housing. The contact array includes ground contacts and signal contacts interspersed between corresponding ground contacts. The ground contacts include attachment portions thereon. At least one lossy ground absorber is received in the housing and is coupled to at least one corresponding ground contact. Each lossy ground absorber includes at least one opening. The at least one opening receives the attachment portion of the corresponding ground contact.

Abstract: Cable assembly including a cable harness having insulated wires, a shielding layer that surrounds the insulated wires, and a protective jacket that surrounds the shielding layer. The shielding layer includes an exposed portion that clears an end of the protective jacket. The cable assembly also includes an assembly housing having an internal cavity and a loading passage that provides access to the internal cavity. The exposed portion of the shielding layer is positioned within the loading passage. The insulated wires extend through the internal cavity and are terminated to corresponding electrical contacts of a contact assembly. The cable harness includes an adhesive layer that is coupled to the exposed portion. The adhesive layer is engaged with an interior surface of the assembly housing along the loading passage. The adhesive layer includes a conductive thermoplastic material that electrically couples the shielding layer to the assembly housing.

Abstract: A connector comprising an outer housing having a first keying element, an inner housing at least partially disposed in the outer housing and having second and third keying elements, the second keying element cooperating with the first keying element to align angularly the inner housing with the outer housing, a ferrule assembly at least partially disposed in the inner housing and having a ferrule and fourth and fifth keying elements, the fourth keying element cooperating with the third keying element to align angularly the ferrule assembly with the inner housing, an alignment member receiving at least a portion of the ferrule assembly, the alignment member having a sixth keying element to cooperate with the fifth keying element to align angularly the ferrule assembly with the alignment member, and wherein the clearance between the fifth and sixth keying elements is less than that between the first and second keying elements, and between the third and fourth keying elements.

Abstract: An article and process are described. The article includes a conductive heat-recoverable composite shield or a conductive heat-recovered composite shield formed from a conductive heat-recoverable composite shield. The conductive composite shield and/or the conductive heat-recovered composite shield formed from a conductive heat-recoverable composite shield comprises a non-conductive matrix and conductive particles within the non-conductive matrix. The article has a resistivity of less than 0.05 ohm·cm. A process of producing the conductive heat-recovered composite shield includes extruding the conductive heat-recoverable composite shield and heating the conductive heat-recoverable composite shield thereby forming the conductive heat-recovered composite shield.

Abstract: A conductive composite formulation and an article at least partially formed from a conductive composite formulation are disclosed. The conductive composite formulation includes a polymer matrix and a colorant blended with the polymer matrix. The conductive composite formulation and the article each have a compound resistivity of between 0.0005 ohm·cm and 0.2 ohm·cm.

Abstract: Cable shielding assemblies and processes of producing cable shielding assemblies are described. The cable shielding assemblies include a conductor and a conductive composite shield extending around at least a portion of the conductor, the conductive composite shield having a non-conductive matrix and conductive particles within the non-conductive matrix. The conductive composite shield has a resistivity of less than 0.05 ohm·cm. The processes of producing cable shielding assembles include positioning the conductive composite shield. The positioning is at least partially around a conductor, at least partially around a dielectric material, at least partially surrounded by a jacket material, or a combination thereof.

Abstract: An optical connector comprising a plug housing having a pin cavity; a pin having a front and rear orientation and disposed at least partially in the pin cavity, the pin comprising at least a pin sleeve having a pin sleeve length, the pin sleeve at least partially containing a pin ferrule and a pin lens; a receptacle housing having a socket cavity; a socket having a front and rear orientation and disposed at least partially in the socket cavity, the socket comprising at least a socket sleeve having a socket sleeve length, the socket sleeve at least partially containing a socket ferrule and a socket lens; and an alignment sleeve between the pin and socket, wherein, when in a mated state, a pin front portion of the pin sleeve and a socket front portion of the socket sleeve are disposed in the alignment sleeve, wherein the pin front portion and the socket front portion are at least ? the length of the pin sleeve and socket sleeve, respectively.

Abstract: An electrical connector includes a connector housing configured to engage a mating connector during a mating operation. A contact array includes pin contacts coupled to the connector housing. Each of the pin contacts have an elongated body including a central plane that extends along a longitudinal axis to a mating end. Each of the pin contacts has first and second deflectable beams at the mating end. The first deflectable beam are configured to engage a first flexible contact finger of the mating connector and deflect toward the central plane during the mating operation. The second deflectable beam is configured to engage a second flexible contact finger of the mating connector and deflect toward the central plane during the mating operation.

Abstract: An electrical connector includes a plurality of contact modules stacked parallel to each other within a housing. Each contact module includes a pair of wafer sub-assemblies. The wafer sub-assemblies are identical and oriented 180° with respect to each other. Each wafer sub-assembly includes an overmolded leadframe and a conductive shell holding the overmolded leadframe. The overmolded leadframe has a plurality of contacts including intermediate sections extending between mating and mounting ends. The intermediate sections are encased in an overmolded body of the overmolded leadframe. The shell has a pocket at an inner side thereof receiving the overmolded leadframe and the inner sides of the shells face each other. The shell has securing features for securing the shells together and the shell provides electrical shielding for the contacts of the overmolded leadframe.

Abstract: An electrical connector includes a housing having a front and a rear. The housing including a slot defined through the front that is configured to receive a mating connector therein. Signal contacts are held in the housing. The signal contacts are arranged within the slot to mate with the mating connector. Ground contacts are held in the housing and interspersed among the signal contacts. The ground contacts are arranged within the slot to mate with the mating connector. A ground bus includes a base and multiple sets of projections extending from the base. Each set including at least two projections that engage the same corresponding ground contact at spaced-apart locations. The sets of projections are connected via the base to create a ground circuit between the ground contacts that are engaged by the ground bus.

Abstract: A connectorized wireless node used to distribute power and control devices in a system. The connectorized wireless node includes a housing, power control circuitry and wireless control circuitry. The power control circuitry is provided in the housing and distributes power to the devices. The wireless control circuitry is provided in the housing and receives wireless signals which contain control information. The wireless control circuitry cooperates with the power control circuitry to control the devices within a system.

Abstract: Static dissipative articles and processes of producing static dissipative articles are described. The static dissipative article includes a conductor and a dissipative coating over the conductor, the dissipative coating including a polymer matrix and between 0.1 and 10%, by weight, conductive nano-carbons homogenously distributed with the polymer matrix. The dissipative coating has a resistivity of between 106 and 1014 ohm·cm, and the conductive-nano-carbons have an aspect ratio of at least 100. The process of producing a coated article includes blending a polymer powder with between 0.1 and 10%, by weight, conductive nano-carbons to form a micron-level homogenous compound, and extruding the compound onto a conductor to form a dissipative coating over the conductor.