Abstract: A low-cost and mass producible carrier part for precise mounting of optical components such as an optical fiber and optical die and associated fabrication process.

Abstract: An electrical connector includes a housing and plural contact modules stacked adjacent to each other and held by the housing. Each contact module includes a contact array, a dielectric holder, and lossy blocks. The contact array includes signal contacts and ground contacts arranged in alternating pairs along a length of a column. The dielectric holder surrounds and engages the signal and ground contacts along intermediate segments thereof to secure the signal and ground contacts in place. The lossy blocks are mounted to the intermediate segments of the ground contacts within the dielectric holder. Each lossy block is associated with a corresponding pair of ground contacts and engages at least one of the ground contacts in the pair. The lossy blocks are composed of a lossy material that has a greater loss tangent than a low loss material that forms the dielectric holder.

Abstract: Power connector includes a connector housing having a mating side and a mounting side. The connector housing includes a receiving cavity that opens to the mating side. The mounting side is configured to interface with an electrical component. The power connector also includes first and second power contacts disposed within the receiving cavity and configured to be terminated to the electrical component. The power connector also includes a multi-function contact configured to be terminated to the electrical component. The multi-function contact includes a switch segment that is disposed within the receiving cavity. The switch segment has a mating interface that is configured to engage the first power contact and is capable of flexing between first and second positions. The mating interface engages the first power contact in the first position and is separated from the first power contact in the second position.

Abstract: The invention relates to a wireless power connector and a wireless power connector system including at least one wireless power connector for contactlessly receiving electric power from a second connector and for contactlessly supplying electric power to a third connector. In order to enable the wireless power connector to inductively forward electric power received from the second connector, the invention suggests providing a first and a second mating end respectively connectable to the second and the third connector and a magnetic core extending between the first and the second mating end. A coil is wound around the magnetic core and configured to output, as an alternating current, at least parts of the electric power received from the second connector. The magnetic core interconnects the first and the second mating end such that, in a connected state, the magnetic core inductively forwards electric power to the third connector.

Abstract: An optical assembly having x, y and z axes and comprising: (a) a first substrate having a planar surface, a first wall adjacent and substantially perpendicular to the planar surface, a first register surface adjacent the first wall, at least one foundation to receive an optical element having a first optical axis at least partially along the z axis; (b) an opto-electrical device (OED) having a top surface, an active area on the top surface having a second optical axis normal to the top surface, and a first alignment element defined on the top surface, the OED mounted to the first wall such that the first alignment element contacts the first register surface to position the OED on the first substrate along at least one of the x or y axes with the second optical axis parallel to the planar surface.

Abstract: The invention relates to contactless plug connectors and contactless plug connector systems for electromagnetically connecting a corresponding mating plug connector. In order to allow for an electromagnetic connection, the invention suggest providing at least one input terminal for inputting a baseband input signal; an antenna element arranged at the mating end of the contactless plug connector; and a transmitting circuit for modulating the inputted baseband input signal on a predetermined carrier frequency and for transmitting the modulated baseband input signal via the antenna element as a radio wave with the predetermined carrier frequency. In particular, the contactless plug connector and contactless plug connector system include an electromagnetic shielding element arranged to surround the transmitting circuit and the antenna element with a rim portion forming an opening at the mating end of the contactless plug connector.

Abstract: A header transition connector includes a header housing having a separating wall separating a first cavity from a second cavity. Header signal contacts are held by the header housing. The header signal contacts are arranged in pairs carrying differential signals. The header signal contacts have first mating ends in the first cavity for mating with a first receptacle connector. The header signal contacts have second mating ends in the second cavity for mating with a second receptacle connector. Header ground shields are held by the header housing. The header ground shields have first mating ends in the first cavity for mating with the first receptacle connector. The header ground shields have second mating ends in the second cavity for mating with the second receptacle connector. At least a group of the header ground shields are electrically commoned with each other within the header housing.

Abstract: A module having a front/rear and top/bottom orientation comprising a housing having a front and rear end; a connector at the front end of the housing for interengaging with a mating connector having purchase point; a resilient latch having a secured end secured to the housing, and a free end forward of the secured end, the free end being biased toward the housing and configured to releasibly engage the purchase point; and an actuator moveably attached to the housing, the actuator being disposed under the latch and having a contact portion which contacts the latch as the actuator is pulled rearward to urge the latch away from the housing, thereby freeing the free end from the purchase point.

Abstract: The present invention relates to an end cap for terminating a transmission cable containing at least one transmission line, the end cap comprising at least one lead-through opening for guiding the at least one line from a rear side to a front side of the end cap. Further, the invention relates to a terminating arrangement terminating a transmission cable containing at least one transmission line. Moreover, the invention relates to a kit for a terminating arrangement for terminating a transmission cable. In order to facilitate the termination of a transmission cable, the present invention provides that a passage extending from the rear side to the front side is formed at the end cap, the passage being adapted for accommodating a central strength member of the cable.

Abstract: The invention relates to a contactless connector (100), a system including the contactless connector (100) and a corresponding mating connector (200), and a manufacturing method for the contactless connector. In order to enable the contactless connector to transmit/receive power to/from the corresponding mating connector, the invention suggest providing at the contactless connector an inner ferrite element (102, 202) and an inductive coupling element (110) arranged to at least partially surround the inner ferrite element. An outer ferrite element (107, 207) of the contactless connector is arranged to at least partially surround the inductive coupling element (110), wherein a front end (108) of the outer ferrite element (107) facing the mating end of the contactless connector is recessed in an axial direction of the contactless connector with respect to a front end (103) of the inner ferrite element (102, 202) facing the mating end (101).

Abstract: The invention relates to a cable fixture assembly for fastening at least one cable, such as an optical fiber cable, at a cable carrier, such as a housing of a splitter. The cable having a core, a reinforcement cover for protecting the core as well as an outer jacket, wherein the reinforcement cover and the outer jacket are stripped off the core, at least in sections, and the stripped-off reinforcement cover is folded back; as well as the cable carrier, to which the cable is fastened with the fold-back section of the reinforcement cover. Further provided is a method of fastening at least one cable having a core, a reinforcement cover for protecting the core as well as an outer jacket, such as an optical fiber cable, at a cable carrier, such as the housing of a splitter.

Abstract: The invention relates to a mating enclosure having a flange, wherein the flange has a forward face, a rearward face, and a first outer perimeter, a central opening, wherein the central opening has a second outer perimeter contained within the first outer perimeter, at least one protrusion protruding substantially perpendicularly from the forward face of the flange, wherein the protrusion has an inner surface facing the central opening, an outer surface facing away from the central opening, and a forward surface facing in the same direction as the forward face of the flange, and at least one locking element positioned on the outer surface of the protrusion, wherein the locking element is at rest such that a distance between the outer perimeter of the flange and the locking element is less than a distance between the outer perimeter of the flange and the outer surface of the protrusion.

Abstract: An enclosure assembly for a cable extending in a connection direction includes a mating closure and a sealing enclosure operably coupled to the mating closure in the connection direction. Additionally, the enclosure assembly includes an end fitting operably coupled to the sealing enclosure. The end fitting includes a cable channel extending in the connection direction and is configured to receive the cable. A force applied to the cable is transmitted to the mating closure through the sealing enclosure.

Abstract: An optical interface comprising a first portion having at least one optical conduit interface with a first axis for optically coupling with at least one optical conduit, a second portion having at least one transmitter interface with a second axis for optically coupling with a transmitting optical device, and at least one receiver interface with a third axis for optical coupling with a receiving optical device, the first, second and third axes being essentially parallel; and a wavelength filter element (WFE) disposed between the first and second portions, the WFE defining a first optical path between the transmitter interface and the optical conduit interface, and a second optical path between the optical conduit interface and the receiver interface.

Abstract: A transceiver comprising at least one chip comprising at least a first array of long-wavelength VCSELs and at least a second array of receiving optical devices, an optical interface optically coupled to the VCSELs and the receiving optical devices and configured to optically couple with an optical connector, transmitting and receiving circuitry electrically connected the VCSELs and the receiving optical devices, and adapted for connecting to an electrical connector, and a frame for holding the chip, the optical interface, and the transmitting and receiving circuitry.

Abstract: The invention relates to an enclosure assembly for at least of a variety of in particular standardized connectors on a cable, such as RJ45, HDMI and others. The enclosure assembly has a connector volume located within an inner body of the enclosure assembly. The connector volume is adapted to moveably accommodate the connector. The inner body is open to an outer environment and a forward and a rearward end. The enclosure assembly further includes an outer body adapted to slide over the inner body in a forward direction. The outer body is provided with at least one locking element for securing the enclosure assembly to a mating enclosure. As a further improvement to the known connector assemblies, the connector volume is located within an electromagnetic shielding structure and the electromagnetic shielding structure is located within the inner body.

Abstract: The invention relates to a sealing enclosure and a sealing assembly comprising the sealing enclosure and a mating enclosure as well as a method to connect both. The sealing enclosure loosely receives a connector within a connector volume so that the connector, which may be of a standard type used in electronic or optic data transmission, may be displaced within a plug face at the forward end of the connector volume. Thus, the connector may compensate variations in the position of a mating connector with respect to the mating enclosure. Moreover, the sealing enclosure allows to seal off the connector volume and engage the sealing enclosure with a mating enclosure in a single motion. This is affected by having a cable seal interposed between an inner body and an outer body. If the outer body is moved forward to engage the mating connector, the cable seal is squeezed between the cable and the inner body sealing off the connector volume at the rearward end of the inner body.

Abstract: Electrical connector assembly including an electrical connector having signal contacts and ground contacts that are coupled to a connector housing and disposed along a mounting side of the connector housing. The electrical connector assembly also includes a contact organizer that is positioned along the mounting side of the connector housing. The contact organizer has signal windows and ground passages extending therethrough that are defined by respective inner surfaces of the contact organizer. The ground contacts engage the inner surfaces of the ground passages when the contact organizer is held in a pre-loaded position away from the mounting side. The contact organizer moves to a seated position against the mounting side when the electrical connector is mounted to the circuit board. Each of the signal contacts is surrounded by an air gap that exists between the signal contact and the inner surface of the corresponding signal window.

Abstract: The present invention relates to an end cap for terminating a transmission cable containing at least one transmission line, the end cap comprising at least one lead-through opening for guiding the at least one line from a rear side to a front side of the end cap. Further, the invention relates to a terminating arrangement terminating a transmission cable containing at least one transmission line. Moreover, the invention relates to a kit for a terminating arrangement for terminating a transmission cable. In order to facilitate the termination of a transmission cable, the present invention provides that a passage extending from the rear side to the front side is formed at the end cap, the passage being adapted for accommodating a central strength member of the cable.