Abstract: A plug-in connector that can be manufactured using MID technology, which nevertheless ensures good crosstalk compensation and thus a high data transmission rate has two assembled contact carrier parts with contacts are disposed between these contact carrier parts. A separate, electrically conductive compensation coating may be provided in each contact carrier part, each having a connection surface for producing an electrically conductive connection to an associated contact. Each of the electrically conductive compensation coatings has at least one coupling surface for a targeted capacitive coupling with one or more further contacts. Between each coupling surface and the associated contact, an insulating film or part of an insulating film is provided, which acts as a dielectric and a spacer. By selection of the contacts to be coupled and the capacitance of the coupling, good compensation of undesired crosstalk can thus be achieved in a simple manner.

Abstract: The invention relates to a device socket consisting of a wall feedthrough (2), a printed circuit board (10) and an electronic component (13) attached to the printed circuit board (10), wherein the device socket (1) comprises a locking means (7, 8), so that the printed circuit board (10) can be connected to the wall feedthrough (2), wherein the device socket (1) has at least one seal (22), which seal (22) comprises first means, by which the vertical position (y) of the electronic component (13) on the printed circuit board (10) is predetermined, wherein the seal (22) has an opening (23), into which the electronic component (13) can be inserted, wherein a centre (Md) is located in the opening plane of the seal (22) and the opening (25) of the wall feedthrough (2) has a centre (Mo), and wherein the centres (Md, Mo) have a distance from each other, the amount of which is greater than zero, wherein the printed circuit board (10) comprises second means, by which the horizontal position (x, z) of the electronic comp

Abstract: The invention relates to a cable retainer (1) for mechanically retaining a cable (10) on a cable outlet, comprising a cable outlet connection piece (2), a sealing element (3) and a pressure element (4), wherein the pressure element (3) can be screwed onto the cable outlet connection piece (2) using a thread (2.1, 3.1) and in this way squeezes the sealing element (3) together between the cable output connector (2) and the pressure element (4). By means of detents (4.2) on the pressure element (4) and detents (2.2) on the cable outlet connection piece (2) that cooperates therewith, a release of the threads (2.1, 3.1) screwed together is prevented.

Abstract: A so-called QSFP-plug-in connector is suggested for high performance-plug-in connections in data centers, which comprises a one-piece metallic exterior housing and in which a one-piece locking device is embodied, which via a latch attached thereat can be released from an appropriately embodied cage-like counter connector. Here, a circuit board is provided for the direct plug-in connection in copper-based twin-axial cable connections which is connected inside the exterior housing with electric conductors arranged therein. The electric conductors are held in axially aligned grooves via a fixing clip encompassing them.

Abstract: A plug connector to connect electrical conductors, comprising a housing of the plug connector formed as a single piece and provide an unlocking mechanism in the housing which is triggered by operating a tab on a cable connection side. A latching mechanism which is located on the exterior of the housing can be shifted into the housing by triggering the unlocking mechanism, forming a latch with a mating plug.

Abstract: In a housing 1 for receiving an electric circuit board 50 it is proposed to provide in a first housing half 2 of the housing 1 a plurality of bearing pads 20, 21 located at various levels. These bearing pads 20, 21 receive, together with counter bearing pads 30, 31 provided in a second housing half 30, the electric circuit board 50. A plurality of support points 55, 56 is provided on the electric circuit board 50, each of which support points 55, 56 is respectively associated with the bearing pads 20, 21 and counter bearing pads 30, 31. By removing individual support points 55, 56, the bearing pads 20, 21 and counter bearing pads 30, 31 are selected, on which the circuit board 50 is supposed to rest. By selecting the bearing pads 20, 21 and counter bearing pads 30, 31 lying at different levels, the level of the electric circuit board 50 in the housing 1 is determined.

Abstract: Summary: For a plug connector to connect electrical conductors, it is suggested to form a housing (5) of the plug connector (1) as a single piece and provide an unlocking mechanism in the housing (5) which is triggered by operating a tab (40) on the cable connection side. A latching mechanism (33) which is located on the exterior of the housing can be shifted into the housing (5) by triggering the unlocking mechanism, forming a latch with a mating plug (70).

Abstract: A so-called QSFP-plug-in connector is suggested for high performance-plug-in connections in data centers, which comprises a one-piece metallic exterior housing and in which a one-piece locking device is embodied, which via a latch attached thereat can be released from an appropriately embodied cage-like counter connector. Here, a circuit board is provided for the direct plug-in connection in copper-based twin-axial cable connections which is connected inside the exterior housing with electric conductors arranged therein. The electric conductors are held in axially aligned grooves via a fixing clip encompassing them.

Abstract: A connector housing with an angled strain relief element is separably fixed thereon in different directions. The housing includes an insulating body with a square collar around an opening, wherein the collar features a peripheral recess with interlocking recesses. The angled strain relief element features a connection opening that is consistent with this opening, as well as a U-Shaped rail that surrounds the connection openings on three sides. The rail features interlocking tabs and interlocking hooks and can be completely inserted into the recess of the insulating body until it interlocks.

Abstract: In a connector housing with integrated cable clamp, it is proposed to provide a receptacle sleeve for an electrical cable that is integrally formed on the connector housing and provided with clamping elements that are distributed over the radius and point in the mating direction. When a pressure screw is screwed onto the receptacle sleeve, the clamping elements are pressed radially inward and the electrical cable is clamped in position.

Abstract: A special plug connector is proposed for contacting a mating plug using a standard plug connector, such that the dimensions of the mating plug differ from this standard plug connector in both horizontal and vertical directions. This special plug connector has a plug connector housing with two bearing pins and a holding element for holding two respective ferrule housings. Firstly, the holding element is elastically connected by a first spring element to the plug connector housing. Secondly, the holding element having two arms, each of which has a corresponding elongated hole, is rotatable within a certain angular range about the bearing pins of the insert under the influence of a spring and is held on the plug connector housing, so that it is displaceable by a first displacement path axially to the ferrules under the influence of a spring.

Abstract: In order to stabilize a connector housing with an angled strain relief element (4) that can be separably fixed thereon in different directions, it is proposed to provide an insulating body (3) with a square collar (31) around an opening, wherein the collar (31) features a peripheral recess (32) with interlocking recesses (33). The angled strain relief element (4) features a connection opening that is consistent with this opening, as well as a U-shaped rail (44) that surrounds the connection openings on three sides. The rail (44) features interlocking tabs (47) and interlocking hooks (46) and can be completely inserted into the recess (32) of the insulating body (4) until it interlocks. It is furthermore proposed to provide a receptacle sleeve (48) for an electric cable (8) that is moulded onto the angled strain relief element (4) with clamping elements (41) that are distributed over the radius and point in the direction of the angling.

Abstract: In a cable clamp for fixing an electrical cable (8) that is connected to a connector, it is proposed to insert a clamping element (10) into a cylindrical cable receptacle (2) integrally moulded on the connector housing (1) such that it can be displaced by means of a pressure screw (20). Clamping fingers (13) that are integrally moulded on the clamping element (10) fix the electrical cable (8) extending within the clamping element (10) while guiding fingers (12) integrally moulded on the clamping element (10) prevent the clamping element (10) from turning.

Abstract: In a cable clamp for fixing an electrical cable (8) that is connected to a connector, it is proposed to insert a clamping element (10) into a cylindrical cable receptacle (2) integrally moulded on the connector housing (1) such that it can be displaced by means of a pressure screw (20). Clamping fingers (13) that are integrally moulded on the clamping element (10) fix the electrical cable (8) extending within the clamping element (10) while guiding fingers (12) integrally moulded on the clamping element (10) prevent the clamping element (10) from turning.

Abstract: In a connector housing (1) with integrated cable clamp, it is proposed to provide a receptacle sleeve (10) for an electrical cable (2) that is integrally formed on the connector housing (1) and provided with clamping elements is (20) that are distributed over the radius and point in the mating direction. When a pressure screw (5) is screwed onto the receptacle sleeve (10), the clamping elements (20) are pressed radially inward and the electrical cable (2) is clamped in position.

Abstract: A circuit board connector extension comprising a body made of plastic and able to be attached to a circuit board, with first and second groups of contacts which each have one connecting end for contacting conductor tracks on the circuit board and one plug-in end for contacting contacts of a connector piece, the connecting ends of the two groups of contacts being arranged on one and the same side of the body, whereas the plug-in ends of the first group being arranged on a side of the body difference from that where the plug-in ends of the second group are arranged.

Abstract: A circuit board connector extension (10) comprising a body (16, 18) made of plastic and able to be attached to a circuit board, with first and second groups of contacts (26, 27) which each have one connecting end (32) for contacting conductor tracks on the circuit board and one plug-in end (28) for contacting contacts of a connector piece, the connecting ends (32) of the two groups of contacts (26, 27) being arranged on one and the same side of the body (16, 18), whereas the plug-in ends (28) of the first group being arranged on a side of the body (16, 18) different from that where the plug-in ends (28) of the second group are arranged.