Abstract: The invention relates to a strain relief device (1) for a plug connect for communications and data technology, comprising a base part (10) for holding at least part of the plug connector, and a cable (51) which can be connected to the plug connector, with the base part (10) being designed with first latching means, and closure means (30), with the closure means (30) being designed with second latching means which form a latching connection with the first latching means on the base part (10), wherein the closure means (30) are in the form of a spring comprising two limbs (31) which can be pushed along a guide (20) onto the base part (10), with the base part (10) being designed with at least one support point (21) for the closure means (30), and the closure means (30) being designed such that an opposing force, which is produced by the cable (51) moves the second latching means, which are arranged on the limbs (31), toward the first latching means on the base part (10).

Abstract: The invention relates to a strain relief device (1) for a plug connect for communications and data technology, comprising a base part (10) for holding at least part of the plug connector, and a cable (51) which can be connected to the plug connector, with the base part (10) being designed with first latching means, and closure means (30), with the closure means (30) being designed with second latching means which form a latching connection with the first latching means on the base part (10), wherein the closure means (30) are in the form of a spring comprising two limbs (31) which can be pushed along a guide (20) onto the base part (10), with the base part (10) being designed with at least one support point (21) for the closure means (30), and the closure means (30) being designed such that an opposing force, which is produced by the cable (51) moves the second latching means, which are arranged on the limbs (31), toward the first latching means on the base part (10).

Abstract: The invention relates to a connecting socket for a data network, comprising a housing and at least one female connector, the housing being made of plastic, and the inner surfaces of the housing being at least partially metallized.

Abstract: The invention relates to a seal (5) for a cover (8a, 8b) for an electrical connecting socket (32), with the seal (5) having at least one sealing lip (10) which is provided to make contact with a contact surface (30) when the seal (5) is in the compressed state and thus to seal at least a part of that area of a base body (1) which is covered by the cover (8a, 8b), and wherein the sealing lip (10) has at least one first circumferential rim (25) on its inner face (15), which rim (25) is in each case formed, when the seal (5) is in the unloaded state, by the contact edge of a first (16) and of a second (17) surface element, which each run along the surface of the sealing lip (10), and has at least one second circumferential rim (26) which, when the seal (5) is in the unloaded state, is formed by the contact edge of the second (17) and of the third (18) surface element, which each run along the surface of the sealing lip (10), with the first circumferential rim (25) making contact with the contact surface (30) whe

Abstract: The invention relates to a seal for covers for inscription fields, comprising a cover element which is intended for insertion into a base body in the form of a holder, and at least one sealing element, which can be introduced into a space between the base body and the cover element and can be compressed by the base body and the cover element, so that it is possible to seal at least a part of the area which is covered by the cover element, in which case the profile of the sealing element is designed such that, in the compressed state, a sealing effect can be achieved in its cross section at at least three points on the profile.

Abstract: The invention relates to a cover, in particular for covering inscription fields, comprising a cover element which is provided for insertion into a base body which is in the form of a holder, with at least one hooking-in element being provided on the cover element which can be engaged with at least one cutout, which is in the form of a hooking-in opening on the base body, and with at least one latching tab being provided on the cover element and/or on the base body which can engage with at least one cutout which corresponds to the latching tab and/or is provided on the cover element and is in the form of a latching opening thus making it possible to form a detachable latching connection between the cover element and the base body, in which case the cover element and/or the base body can be at least partially elastically deformed in a direction running parallel to the surface in the area of the at least one hooking-in element and/or in the area of the at least one latching tab and/or in the area of the at least

Abstract: An electrical connector includes a connector housing and a printed circuit board with two sets of contact elements. The first set of contact elements is located on the front face of the printed circuit board and protrudes into an opening in the plug connector housing. The second set of contact elements is located on the rear face of the printed circuit board. The contact elements of the second set are configured to form insulation-displacement contacts. The plug connector also includes a cable manager which has a continuous opening and is configured on the front face with guides for cores or wires which are intended to make contact with the insulation-displacement contacts. The guides in the region of the insulation-displacement contacts are configured with recessed receiving elements or holders for the insulation-displacement contacts, and the cable manager can be latched to the plug connector housing.

Abstract: An electrical connector includes a connector housing (2) and a printed circuit board (3) with two sets of contact elements (7, 8). The first set of contact elements (7) is located on the front face of the printed circuit board (3) and protrudes into an opening in the plug connector housing (2). The second set of contact elements (8) is located on the rear face of the printed circuit board (3). The contact elements of the second set (8) are configured to form insulation-displacement contacts (8). The plug connector (1) also includes a cable manager (5) which has a continuous opening (13) and is configured on the front face (16) with guides (19) for cores or wires which are intended to make contact with the insulation-displacement contacts (8). The guides (19) in the region of the insulation-displacement contacts (8) are configured with recessed receiving elements or holders (20) for the insulation-displacement contacts (8), and the cable manager (5) can be latched to the plug connector housing (2).

Abstract: An electrical connector includes a connector housing (2) and a printed circuit board (3) with two sets of contact elements (7, 8). The first set of contact elements (7) is located on the front face of the printed circuit board (3) and protrudes into an opening in the plug connector housing (2). The second set of contact elements (8) is located on the rear face of the printed circuit board (3). The contact elements of the second set (8) are configured to form insulation-displacement contacts (8). The plug connector (1) also includes a cable manager (5) which has a continuous opening (13) and is configured on the front face (16) with guides (19) for cores or wires which are intended to make contact with the insulation-displacement contacts (8). The guides (19) in the region of the insulation-displacement contacts (8) are configured with recessed receiving elements or holders (20) for the insulation-displacement contacts (8), and the cable manager (5) can be latched to the plug connector housing (2).

Abstract: An electrical connector includes a connector housing (2) and a printed circuit board (3) with two sets of contact elements (7, 8). The first set of contact elements (7) is located on the front face of the printed circuit board (3) and protrudes into an opening in the plug connector housing (2). The second set of contact elements (8) is located on the rear face of the printed circuit board (3). The contact elements of the second set (8) are configured to form insulation-displacement contacts (8). The plug connector (1) also includes a cable manager (5) which has a continuous opening (13) and is configured on the front face (16) with guides (19) for cores or wires which are intended to make contact with the insulation-displacement contacts (8). The guides (19) in the region of the insulation-displacement contacts (8) are configured with recessed receiving elements or holders (20) for the insulation-displacement contacts (8), and the cable manager (5) can be latched to the plug connector housing (2).

Abstract: The invention relates to a strain relief device (1) for a plug connect for communications and data technology, comprising a base part (10) for holding at least part of the plug connector, and a cable (51) which can be connected to the plug connector, with the base part (10) being designed with first latching means, and closure means (30), with the closure means (30) being designed with second latching means which form a latching connection with the first latching means on the base part (10), wherein the closure means (30) are in the form of a spring comprising two limbs (31) which can be pushed along a guide (20) onto the base part (10), with the base part (10) being designed with at least one support point (21) for the closure means (30), and the closure means (30) being designed such that an opposing force, which is produced by the cable (51) moves the second latching means, which are arranged on the limbs (31), toward the first latching means on the base part (10).

Abstract: An electrical connector includes a connector housing (2) and a printed circuit board (3) with two sets of contact elements (7, 8). The first set of contact elements (7) is located on the front face of the printed circuit board (3) and protrudes into an opening in the plug connector housing (2). The second set of contact elements (8) is located on the rear face of the printed circuit board (3). The contact elements of the second set (8) are configured to form insulation-displacement contacts (8). The plug connector (1) also includes a cable manager (5) which has a continuous opening (13) and is configured on the front face (16) with guides (19) for cores or wires which are intended to make contact with the insulation-displacement contacts (8). The guides (19) in the region of the insulation-displacement contacts (8) are configured with recessed receiving elements or holders (20) for the insulation-displacement contacts (8), and the cable manager (5) can be latched to the plug connector housing (2).

Abstract: A grounding bracket, in particular for use in a connecting device for telecommunication and data transmission applications, in particular mounted on a hat-type rail as a carrier rail. An easy-to-replace grounding bracket for connecting devices is provided with different grounding tasks being possible in a simple way. Spring elements for resiliently latching in hat-type rail, a contact lug bent out from a bracket bottom and fastening elements for safe attachment at a bottom of a connecting device of telecommunication and data transmission applications are provided.

Abstract: A terminal block for high transmission rates in the telecommunication and data technique, comprising a plastic body with chambers disposed in at least one row for insulation displacement contact elements and slots for shield plates disposed in the transverse walls between said chambers and extending with parallel axes thereto. The shield plates of at least one chamber are connected by narrow webs inserted in grooves in the bottom of plastic body.