Abstract: A connector has at least one engagement ball that is movable between an engagement position and a disengagement position. A movement of an engagement ball operating part of the connector relative to an inner housing of the connector can force the at least one engagement ball from the engagement position into the disengagement position. The at least one engagement ball is biased in the engagement position by an elastic element via the engagement ball operating part. The connector further comprises an outer housing of the connector with a catch that when the outer housing is operated engages with a counter catch of the engagement ball operating part to move the engagement ball operating part, so that the engagement ball operating part forces the at least one engagement ball from the engagement position into the disengagement position.

Abstract: A connecting plug includes a locking pin arranged at a connector face. The locking pin has at least one latching element and a counter-piece. The latching element is configured for engaging with at least one counter-latching element of a second connector part. The locking pin includes a spring element configured for resiliently pressing the at least one latching element and the counter-piece against each other. The counter-piece is shaped and configured for pressing the at least one latching element in a radially outward direction and for positively locking the at least one latching element in an engaged position as soon as the at least one latching element is engaged with the at least one counter-latching element.

Abstract: A component for an electrical connector, comprising a housing and a plurality of electrical contact elements, the ends of which are accessible at one end of the housing for connection to a mating connector component. The electrical contact elements are arranged in at least two segments which are separated from and shielded against each other. The outer contour of each of the at least two segments has at least two legs and a base side extending from one end of one leg to one end of the other leg, at least one leg of each segment forming an interior angle of 30° to 80° or 100° to 150° with the base side. The segments are arranged in a row with a shielding being provided between the legs of neighbouring segments.

Abstract: A connecting plug is described. The connecting plug comprises a central pin and a lamella sleeve, with the lamella sleeve comprising a front opening, a rear opening and a plurality of lamellae. The lamella sleeve circumferentially encloses an axial segment of the central pin and wherein the lamella sleeve is fixed to the central pin. The central pin extends through the rear opening, through the lamella sleeve and through the front opening of the lamella sleeve.

Abstract: An adaptive connector comprising a contact jack and a lamella comb, wherein the lamellae of the lamella comb electrically contact the contact jack, characterised in that the contact jack is connected in a mechanically inseparable but movable manner with the lamella comb. The contact jack can be pivoted relatively to the lamella comb with an angular range of more than 2 degrees while maintaining contact between the contact jack and the lamellae of the lamella comb, and/or the contact jack can be moved translationally relatively to the lamella comb in at least one direction within a translational range of more than 1 millimetre. Moreover, an adaptive connector comprising two or more adapter elements that are electrically separate from each other.

Abstract: A flat connector with a latch mechanism having two latch handle portions provided at opposite sides of the connector where the latch handle portions can be moved from an engagement position to a release position. The connector is an angular cable connector and for both handle portions, the direction of the path from the engagement position to the release position is towards the cable end of the connector. The latch handle portions are elastically biased towards their engagement position. The path from the engagement position to the release position is linear. The path from the engagement position to the release position is towards the cable end of the connector and extends in the plane of the handle portion.

Abstract: A socket comprises an annular socket part and a lamella basket at least partly disposed in the interior of the annular socket part. The lamella basket comprises a plurality of lamellae and an annular carrier strip located at the rear part of the lamella basket. Each of the lamellae has a first end and a second end, with the first end being firmly attached to, or integrally moulded with, the annular carrier strip and with the second end being implemented as a free end. The lamellae extend from the annular carrier strip towards the front end of the socket. The inner surface of the annular socket part comprises a bulge that: protrudes in a radially inward direction; and is configured for supporting the lamellae when the lamellae are resiliently deformed in a radially outward direction.

Abstract: A counter connector for mating with a connector has a hollow cylindrical housing. The counter connector includes at least two, and preferably three, of the following three types of locking means for locking the counter connector to the connector: (A) one that is arranged on a perimeter on a cylindrical surface of the housing or of a sleeve located inside the housing, a counter engagement part in the form of a groove, a collar, or a series of radially extending apertures, recesses or protrusions, the counter engagement part being adapted to engage with at least one engagement part or at least one latching part of the connector. (B) one that has a counter latching part that can be deflected elastically in a radial direction of the counter connector and comprises at least one of a radially extending groove, collar, aperture, recess or protrusion adapted to engage with a latching part of the connector. (C) one where a counter thread is adapted to engage with a thread of the connector.

Abstract: An improved floating connector can be employed for, among other things, connecting a traction battery to the drive of an electrically-driven vehicle. The self-aligning floating connector can be used to mate connectors of the battery and the electric drive despite misalignment. The floating connector has a frame and a contact housing movable inside an aperture of the frame. The contact housing is rotatable about an axis that extends perpendicularly to the surface defined by the aperture. The essentially oval outer surface of the contact housing can cooperate with the aperture to provide a limit stop for the relative movement of the contact housing and the frame. The angular movement of the contact housing inside the aperture can be sterically constrained to limit the rotation of the contact housing relative to the frame to a pre-defined angular range. A system with a floating connector and a mating connector is also disclosed.

Abstract: A connector module comprises an insulating body, and further comprises a plurality of signal contact elements and a plurality of shield contact elements forming a connector face configured for establishing electric contact with a counterpart of the connector module. For each of the signal contact elements, there exist two or at most three shield contact elements that are closer to this signal contact element than any signal contact element of the plurality of signal contact elements. The signal contact elements are arranged along a first curve extending in the connector face of the connector module and the shield contact elements are arranged along a second curve extending in the connector face of the connector module, the first curve and the second curve being parallel curves having a predefined normal distance. Viewed along the course of the parallel curves, the signal contact elements and the shield contact elements are arranged alternatingly.

Abstract: A connector system with a primary connector and a coupling connector, and a method for connecting a coupling connector and a primary connector. The system provides an insertion aid for mating the connectors. The connector system has a primary connector with a connecting part and a coupling connector with a base unit and a connecting part. The coupling connector has a slider part that moves relative to the base unit to either a preliminary position or a final position. The connecting part of the coupling connector mates with the connecting part of the primary connector. The slider part and the primary connector each have at least one guiding component which both interact to enforce a predefined motion path of the slider part relative to the primary connector when the coupling connector is coupled with the primary connector and the slider part is moved from the preliminary position to the final position.

Abstract: A mechanism (4) for securing a module (5) inserted into a module receiving frame (1) to the module receiving frame (1) and releasing the module (5) for removal from the module receiving frame (1), comprising a catch (6) arranged on the module (5) or the module receiving frame (1), which catch (6) may be moved to and fro between an open position and a locking position of the catch (6), and a spring (7) for preloading the catch (6) into one of the two positions, the open position or the locking position. The mechanism (4) further comprises a catch holder (11), which may be moved to and fro between a retaining position, in which it holds the catch (6) back against the preloading of the spring (7), and a release position, in which it does not hold the catch (6) back against the preloading of the spring (7).

Abstract: A mechanism for securing a connector device and a mating connector device to one another and for releasing them from one another, the mechanism having at least one catch arranged on the connector device and a drive with a shaft, the rotation of which is capable of moving the catch to and fro between an open position and a locking position of the catch. The mechanism is constructed such that, during travel between the open position and the locking position, the catch performs a combined pivoting and translational movement, and/or a translational movement on a curved path. The mechanism has a slotted link with a link guide and a link block, wherein the link guide is arranged on the catch and the link block lies on the axis of the shaft or is formed by the shaft.

Abstract: A mechanism for securing a connector device and a mating connector device to one another and for releasing them from one another, the mechanism having at least one catch arranged on the connector device and a drive with a shaft, the rotation of which is capable of moving the catch to and fro between an open position and a locking position of the catch. The mechanism is constructed such that, during travel between the open position and the locking position, the catch performs a combined pivoting and translational movement, and/or a translational movement on a curved path. The mechanism has a slotted link with a link guide and a link block, wherein the link guide is arranged on the catch and the link block lies on the axis of the shaft or is formed by the shaft.

Abstract: A plug-in connector comprises a first connecting part with at least one first contact element and a second connecting part with at least one second contact element. The first connecting part is configured for being connected with and disconnected from the second connecting part. The first connecting part comprises a latching element with a snap-in member, and the second connecting part comprises a retaining sleeve configured for accepting the latching element. The latching pin and the retaining sleeve constitute a mechanical mechanism provided in addition to the at least one first contact element and the at least one second contact element. A mechanical interaction between the latching pin and the retaining sleeve enforces a predetermined motion pattern of the at least one first contact element relative to the at least one second contact element during a process of connecting or disconnecting the first connecting part and the second connecting part.

Abstract: A component for an electrical connector, said component bearing a field of electrically conducting signal elements (12) electrically insulated from each other and a field of electrically conducting shield elements (10), the shield elements being electrically interconnected with each other. For each of the signal elements (12), in any partial circumference extending over an angle (?) of more than 160 degrees from this signal element at least one of the shield element (10) is arranged that is closer to this signal element (12) than the any other signal element (12) of the field of signal elements (12). Each of these shield elements extends across an angle (?) of less than 160 degrees from the signal element (12). The number of shield elements (10) is the number of the signal elements (12) times 3 or less.

Abstract: A damping element for a plug-in connector is described, the plug-in connector comprising a socket and a connector pin pluggable into the socket. The damping element is configured to be disposed inside of the socket and comprises a first bearing face adapted for lying flat against the bottom of the socket and a second bearing face adapted for lying flat against the front face of the connector pin. Either a first shaft is attached at or integrally molded with the first bearing face or a second shaft is attached at or integrally molded with the second bearing face. The damping element is adapted for providing a damping effective in the axial direction between the connector pin and the socket.