Abstract: A connector for connection between a circuit board and a further electronic component is disclosed. The connector includes an insulating housing having a board slot open towards a mating direction for accommodating the circuit board, and a plurality of terminals. The terminals have a rear portion, an intermediate portion and a tip portion, the intermediate portion including a contact portion for contacting a surface portion of the circuit board when accommodated in the board slot. The housing includes a window such that for a number of adjacent terminals housing material is absent between the intermediate portions. A shield member may be arranged in between the rear portions of the terminals. Improved circuit boards are also disclosed.

Abstract: An assembly is disclosed herein, including a connector and a carrier for carrying the connector. The connector includes a plurality of terminals having terminal contacts, a first shield at least partially surrounding at least one first terminal and having a first shield contact and a second shield at least partially surrounding at least one second terminal and having a second shield contact. The carrier includes a plurality of signal conductors, e.g. being a circuit board or a connector body. The carrier also includes a plurality of, advantageously substantially identical, contact sites. The terminal contacts are contacted to a number of the contact sites of the carrier, and the first and second shield contacts are arranged adjacent each other so that they together fit and are contacted to one contact site of the carrier.

Abstract: An optical cable assembly is provided, an optical cable provided with one or more optical fibers, a strain-relieve device mounted on the optical cable and configured to provide a strain relieve when the optical cable is fed into an optical module through an opening in a housing of the optical module, wherein the strain-relieve device is provided with an adjustment mechanism configured to adjust a distance between an end portion of the one or more optical fibers and the strain-relieve device. Furthermore, an optical module and a method for assembling an optical cable assembly are provided.

Abstract: The invention relates to a contact pin having longitudinal surfaces bulged to define opposite contact lines extending in longitudinal direction of the contact pin, wherein in cross section of the contact pin the plane through the two opposite contact lines is offset from the cross sectional center of the contact pin.

Abstract: The invention relates to an optical coupling unit for an arrangement for sending optical signals, including a base unit, a light path formed between a light input and a light output of the base unit and configured to transmit light received via the light input to the light output, an outer light path section included in the light path, which section extends outside the base unit and into which the light transmitted along the light path emerges from the base unit via a light exit and from which the light after passing through the outer light path section enters again into the base unit via a light entry, and a light decoupling element, which is formed in the light path by means of at least one beamsplitting surface coating and configured to decouple a portion of the light transmitted along the light path. Furthermore the invention relates to an arrangement for sending optical signals and to an optical transceiver.

Abstract: A high speed flexible printed circuit (FPC) connector includes a housing with ground and signal contact terminal pairs arranged in the housing in a staggered manner along a lateral direction. The housing has a cavity for receiving an FPC board therein. Each ground contact terminal has an upper arm positioned adjacent to a top wall of the cavity and a lower arm positioned adjacent to a bottom wall of the cavity. Each signal contact terminal has only a lower arm positioned adjacent to the bottom wall of the cavity. Signal contact terminals with the only lower arm provide the connector with better signal integrity. An actuator is coupled to the housing for fixing the FPC board in the cavity to establish electrical connections. The actuator has recesses corresponding to the positions of the signal pairs to provide a dielectric constant different from that of the other parts of the actuator.

Abstract: In one embodiment, an electrical connector includes a plurality of leadframe assembly assemblies, each having a leadframe housing and a plurality of electrical contacts carried by the leadframe housing. At least a pair of adjacent leadframe assemblies includes respective first and second conductive member portions of a conductive bar that reduces cross talk. The first and second portions are each seated in their respective leadframe housings and face each other such that the electrical connector is devoid of electrical contacts between the first and second portions.

Abstract: The invention relates to an optical communications system, including an optical module, including a module motherboard provided with a substrate having an upper surface and a lower surface, an optical component on the upper surface of the substrate, the optical component being configured to submit and/or receive optical signals and being connected to electrical conductors extending through the substrate, an optical coupling module having a first light coupling port, a second light coupling port, and at least one light guiding component guiding light signals between the first and second light coupling ports, and a connector receptacle, a longitudinal axis of the connector receptacle being provided parallel or with an acute angle to the plane of the substrate, and a fiber cable connector provided on an end portion of an optical fiber cable and received in the connector receptacle.

Abstract: A circuit board (1) is provided comprising a plurality of insulating layers, at least one ground layer and at least one layer comprising signal traces. The circuit board comprises at least a first conductive via (17) and a second conductive via (17). The first conductive via and the second conductive via penetrate through at least a first insulating layer of the plurality of insulating layers and are connected to a signal trace. The first conductive via and the second conductive via are arranged adjacent each other. At least in the first insulating layer the first conductive via and the second conductive via are separated in a first direction of separation (R) by a first adjustment portion comprising a dielectric material property different from the first insulating layer.

Abstract: Electronic module, such as a small footprint pluggable (SFP) connector module, including a housing, an electroconductive cage for shielding the module and a latch for the cage to the housing. The latch includes a separate latch member accommodated between the housing and the cage, and at least one resiliently protruding tip. The cage is provided with an opening for receiving the resiliently protruding tip.

Abstract: Printed circuit board assembly including an optical subassembly having a carrying face for carrying at least one optoelectronic component in a such way that light emitted from/directed to is transmitted through the optical subassembly; a printed circuit board having a supporting area for supporting the optical subassembly; wherein the printed circuit board supporting area includes a hole lodging at least one part of the optoelectronic component and wherein at least one part of the carrying face is fixed by flip-chip bonding to at least one part of the supporting area.

Abstract: An alignment pin for an optical communication system comprises: a first portion (31) extending along a direction in a receiving hole of a printed circuit board, a second portion (32) extending along this direction in a receiving through hole of an optical coupling device, a third portion (33) extending along this direction in a receiving hole of an external optical component. The pin comprises an abutting surface (35) placed in contact with a parallel complementary surface (36) of the optical coupling device.

Abstract: A Shielding shell for a connector is disclosed which includes a first wall, a second wall and a third wall. The first wall, the second wall and the third wall are arranged mutually at an angle to each other. At least the first wall and the second wall are connected to each other by a first folded edge. The shielding shell further includes a first contact portion connected with the second wall by a second folded edge, the first contact portion being arranged substantially parallel to the third wall and including a plurality of contact segments contacting said third wall.

Abstract: A photonic integrated transmitter device (21) is provided, including a substrate, an array of modulated light sources, each light source providing a modulated signal output at a channel wavelength different from the channel wavelength from other modulated light sources of the array of modulated light sources, an optical fiber interface, configured to receive an end portion of an optical fiber cable, and a division-wavelength multiplexer, wherein the division-wavelength multiplexer is provided in the substrate and is optically connected to the array of modulated light sources and the optical fiber interface via a first and second optical waveguide, respectively. Furthermore, a photonic integrated receiver device and an active optical cable transceiver system are provided.

Abstract: The invention relates to an electro-optical connection module, including a housing, at least one printed circuit board provided in the housing, an optical engine provided on the printed circuit board, the optical engine including at least one of a receiver device configured to transform optical signals received into electrical signals and a transmitter device configured to transform electrical signals received into optical signals, an optical engine port, and an electrical engine port, a pluggable optical port, an optical patch cable assembly connecting the optical engine port and the pluggable optical port for optical signal transmission, and a pluggable electrical port connected to the electrical engine port for electrical signal transmission.

Abstract: An electrical connector assembly includes an electrical connector and a module. The electrical connector includes a connector housing and a first plurality of electrical terminals supported by the connector housing. The module includes a module housing and a second plurality of electrical terminals supported by the module housing. The second plurality of electrical terminals is greater in number than the first plurality of electrical terminals, such that a first select number of the second plurality of electrical terminals is configured to mate with the first plurality of electrical terminals, and a second select number of the second plurality of electrical terminals is configured to mate with an auxiliary electrical component.

Abstract: An optical communication system comprising: an optical circuit board comprising an optical interface having a transmission region, an optical coupling device comprising: a first optical interface having a first transmission region optically coupled to a corresponding transmission region of the optical interface of the optical circuit board, a second optical interface having a second transmission region adapted to be optically coupled to a corresponding transmission region of an optical interface of a mating optical device, a fixation part, wherein the optical communication system comprises a support element glued to the fixation part of the optical coupling device and removably mounted on the optical circuit board.

Abstract: An electrical connector includes a first contact module and a second contact module adjacent the first contact module. Each contact module has a plurality of ground and signal contacts. Each ground contact and signal contact includes a mating portion, a mounting portion, and an intermediate portion extending between the mating portion and the mounting portion. In each contact module, the intermediate portions of the ground contacts are disposed in a first common plane and the intermediate portions of the signal contacts are disposed in a second common plane that is spaced from the first common plane. The first contact modules and the second contact modules are arranged such that two adjacent signal contacts of the first and second contact modules, respectively, define a differential signal pair such that the intermediate portions of the adjacent signal contacts are spaced more closely than the intermediate portions of two adjacent ground contacts of the first and second contact modules, respectively.

Abstract: A connector assembly is provided which includes a housing and at least one conductor module. The conductor module comprises at least a first sub-module and a second sub-module attached together to form the conductor module. The conductor module is at least partially received in the housing. The housing and the first sub-module include cooperating positioning structures for positioning the at least one conductor module into the housing such that the position of the second sub-module with respect to the housing is determined by the position of the first sub-module with respect to the housing in at least a first direction (X; Z). A connector assembly is also provided in which at least one contact includes at least one contact beam of which a part is resiliently displaceable substantially parallel to a side wall of the housing from a preload position to a second position for receiving a mating contact.

Abstract: The invention is related to an optical engine comprising: including at least one optoelectronic component for emitting or receiving light; a substrate for carrying the optoelectronic component; an optical coupling device, configured for guiding light between the optoelectronic component and an optical waveguide, fixed to the substrate. At least the substrate and the coupling device comprise include a fixation element and the other one a complementary fixation element, the complementary fixation element cooperating with the fixation element to locate and fix the coupling device to substrate so as to achieve an optical coupling between the optoelectronic component and the optical coupling device.