Abstract: An insert mounting and a method for inserting and mounting components in holes of printed wiring boards, in particular for plug connectors or parts thereof, include connection pegs of two components being inserted in a T-shaped basic configuration into a hole in a printed wiring board from opposite sides of the printed wiring board, for fastening the two components in the printed wiring board hole. The connection pegs have a rectangular basic cross sectional shape. One of the connection pegs forms a crossbar of the T-shaped basic configuration and is introduced first into the printed wiring board hole. At least one of the connection pegs is elastically deformable for forming an elastic insertion zone of the connection pegs of the two components in a state in which the connection pegs are disposed in the printed wiring board hole.

Abstract: A shielded transfer system is disposed on a back panel printed wiring board and has a strip body with partitions subdividing the strip body into individual rectangular chambers of equal size for receiving cable plugs having a shielding housing with a rectangular cross section. A shielding device for the cable plugs includes additional function elements disposed in the strip body for performing assigned functions, in particular for guiding, contacting, encoding and locking the cable plugs. The additional function elements are constructed and disposed for permitting the rectangular cable plugs with a plug cross section of a certain unit size and smaller rectangular cable plugs with a plug cross section being one-half and one-fourth of the plug cross section of the unit size, to be selectively inserted into the chambers of the strip body, while preserving and utilizing all of the functions of the additional function elements.

Abstract: A shielded transfer system is disposed on a back panel printed wiring board for receiving cable plugs to be inserted next to one another. A shielding device for the cable plugs includes a rectangular sheet-metal frame having long side walls in the form of two mutually parallel longitudinal plates with ends and upper and lower edges. Individual crosswise plates join the longitudinal plates together at the ends and at certain intervals being predetermined by the cable plugs. The longitudinal plates and the crosswise plates have driving prongs securing the longitudinal plates and the crosswise plates to the printed wiring board. The crosswise plates have upper edges and a height placing the upper edges close to the upper edges of the longitudinal plates.

Abstract: A cable plug is provided for connecting a multiplicity of cable leads to a modular plug, which is formed of a plurality of plate-like contact carriers being pre-fitted with IDC contacts. The contact carriers are fitted in succession onto the cable leads and are stacked on one another to form a contact block. The contact block can be inserted in a contact block casing formed of two insulating parts and locked in a particularly conducting plug housing being formed, for example, of two half-shells. The invention is suitable for connecting multi-lead cables to cable plugs, especially to shielded cable plugs.

Abstract: A contact element has an improved press in zone which is formed by two leg members extending substantially parallel to one another with an interconnecting web. The improvement is that the web is broken up into portions with adjacent portions having curvatures that extend in opposite directions to increase the strength of the press in zone and provides an optimally uniform, symmetrical pressure distribution between a bore wall and the press in zone of the contact element when the press in zone is plugged into a bore of a printed circuit board.