Abstract: A conductor terminal having an insulating material housing and having at least one spring-loaded clamping connection in the insulating material housing and also having at least one actuation element, which is pivotably accommodated in the insulating material housing and is designed to open in each case at least one associated spring-loaded clamping connection, is described. The actuation element has two side wall portions which are spaced from one another and at least partially enter the insulating material housing with a pivot bearing region and, opposite said pivot bearing region, are connected to each other by a transverse web to form a lever arm. The pivot bearing regions of the mutually distanced side wall portions of an actuation element form an axis of rotation, about which the actuation element is pivotably mounted in the insulating material housing.

Abstract: A conductor terminal having an insulating material housing and having at least one spring-loaded clamping connection in the insulating material housing and also having at least one actuation element, which is pivotably accommodated in the insulating material housing and is designed to open in each case at least one associated spring-loaded clamping connection, is described. The actuation element has two side wall portions which are spaced from one another and at least partially enter the insulating material housing with a pivot bearing region and, opposite said pivot bearing region, are connected to each other by a transverse web to form a lever arm. The pivot bearing regions of the mutually distanced side wall portions of an actuation element form an axis of rotation, about which the actuation element is pivotably mounted in the insulating material housing.

Abstract: A conductor terminal (1) having an insulating material housing (2) and having at least one spring-loaded clamping connection (11) in the insulating material housing (2) and also having at least one actuation element (4), which is pivotably accommodated in the insulating material housing (2) and is designed to open in each case at least one associated spring-loaded clamping connection (11), is described. The actuation element (4) has two side wall portions (8a, 8b) which are spaced from one another and at least partially enter the insulating material housing (2) with a pivot bearing region (14) and, opposite said pivot bearing region (14), are connected to each other by a transverse web (5) to form a lever arm. The pivot bearing regions (14) of the mutually distanced side wall portions (8a, 8b) of an actuation element (4) form an axis of rotation (D), about which the actuation element (4) is pivotably mounted in the insulating material housing (2).

Abstract: A spring-loaded clamping connection (1) for clamping electrical conductors, having a clamping spring (2) and having a bus bar (6) is described. The clamping spring (2) has a contact limb (3), a spring arc (4) adjoining said contact limb (3), and a clamping limb (5) adjoining the spring arc (4). The clamping limb (5) has a clamping edge (12) for forming a clamping point with the adjacent bus bar (6) for a conductor to be clamped. The spring-loaded clamping connection (1) also has a frame element (7), which is formed as a part separate from the clamping spring (2) and the bus bar (6) and which has a base portion (10), a curved portion (9) adjoining the base portion (10), and a retaining portion (8) adjoining said curved portion (9) and distanced from the base portion (10). The contact limb (3) of the clamping spring (2) is secured to the retaining portion (8). The retaining portion (8) extends in the projection of the extension direction of the contact limb (3).

Abstract: A resilient force clamping element (1) is described, said resilient force clamping element having a current rail (2) and a resilient clamping element (3) that comprises a contacting limb (4), a resilient bend (5) that adjoins the contacting limb (4), and a clamping limb (6) that adjoins the resilient bend (5) and comprises a main section (8) that extends from the resilient bend (5), and a clamping section (7) that is arranged in the direction of the current rail (2). The clamping section (7) comprises a clamping edge (11) on a free end of the clamping section (7) so as to form a clamping site between the clamping edge (11) and the current rail (2) for clamping an electrical conductor. The clamping section (7) comprises a first section (9) that is bent from the main section (8) in the direction of the current rail (2), and a second section (10) that adjoins the first section (9) and is bent back in the direction in which the main section (8) extends, said second section comprising the clamping edge (11).

Abstract: A resilient clamping contact for contacting electrical conductors, said resilient clamping contact having a current rail and having at least two resilient clamping elements that each have a contacting limb, a resilient bend that adjoins the contacting limb and a clamping limb that adjoins the resilient bend and comprises a clamping section at the free end, and having frame parts that extend away from the current rail and have in each case two lateral connecting pieces that are spaced apart from one another and transverse connecting pieces that connect the lateral connecting pieces one to the other, and a conductor feedthrough opening that is formed by the lateral connecting pieces and the transverse connecting pieces.

Abstract: A conductor connection clamp is described that comprises a housing that is embodied from an insulating material and comprises at least one resilient force clamping connector in the housing that is embodied from an insulating material, and also comprises at least one actuating element that is received in a pivotable manner in the housing that is embodied from an insulating material, said actuating element being designed so as to open in each case at least one allocated resilient force clamping connector. The actuating element comprises two lever arm sections that are spaced apart from one another and protrude at least in part with a pivot bearing region into the housing that is embodied from an insulating material and are connected one to the other spaced apart with respect to the pivot bearing region by a transverse connecting piece to a lever arm.

Abstract: A conductor terminal (1) having an insulating material housing (2) and having at least one spring-loaded clamping connection (11) in the insulating material housing (2) and also having at least one actuation element (4), which is pivotably accommodated in the insulating material housing (2) and is designed to open in each case at least one associated spring-loaded clamping connection (11), is described. The actuation element (4) has two side wall portions (8a, 8b) which are spaced from one another and at least partially enter the insulating material housing (2) with a pivot bearing region (14) and, opposite said pivot bearing region (14), are connected to each other by a transverse web (5) to form a lever arm. The pivot bearing regions (14) of the mutually distanced side wall portions (8a, 8b) of an actuation element (4) form an axis of rotation (D), about which the actuation element (4) is pivotably mounted in the insulating material housing (2).

Abstract: A spring-loaded clamping connection (1) for clamping electrical conductors, having a clamping spring (2) and having a bus bar (6) is described. The clamping spring (2) has a contact limb (3), a spring arc (4) adjoining said contact limb (3), and a clamping limb (5) adjoining the spring arc (4). The clamping limb (5) has a clamping edge (12) for forming a clamping point with the adjacent bus bar (6) for a conductor to be clamped. The spring-loaded clamping connection (1) also has a frame element (7), which is formed as a part separate from the clamping spring (2) and the bus bar (6) and which has a base portion (10), a curved portion (9) adjoining the base portion (10), and a retaining portion (8) adjoining said curved portion (9) and distanced from the base portion (10). The contact limb (3) of the clamping spring (2) is secured to the retaining portion (8). The retaining portion (8) extends in the projection of the extension direction of the contact limb (3).

Abstract: A resilient force clamping element (1) is described, said resilient force clamping element having a current rail (2) and a resilient clamping element (3) that comprises a contacting limb (4), a resilient bend (5) that adjoins the contacting limb (4), and a clamping limb (6) that adjoins the resilient bend (5) and comprises a main section (8) that extends from the resilient bend (5), and a clamping section (7) that is arranged in the direction of the current rail (2). The clamping section (7) comprises a clamping edge (11) on a free end of the clamping section (7) so as to form a clamping site between the clamping edge (11) and the current rail (2) for clamping an electrical conductor. The clamping section (7) comprises a first section (9) that is bent from the main section (8) in the direction of the current rail (2), and a second section (10) that adjoins the first section (9) and is bent back in the direction in which the main section (8) extends, said second section comprising the clamping edge (11).

Abstract: A resilient clamping contact (1) for contacting electrical conductors, said resilient clamping contact having a current rail (2) and having at least two resilient clamping elements (3) that each have a contacting limb (4), a resilient bend (5) that adjoins the contacting limb (4) and a clamping limb (6) that adjoins the resilient bend (5) and comprises a clamping section (7) at the free end, and having frame parts (8) that extend away from the current rail (2) and have in each case two lateral connecting pieces (9a, 9b) that are spaced apart from one another and transverse connecting pieces (10,11) that connect the lateral connecting pieces (9a, 9b) one to the other, and a conductor feedthrough opening (12) that is formed by the lateral connecting pieces (9a, 9b) and the transverse connecting pieces (10, 11).

Abstract: A conductor connection clamp (1) is described that comprises a housing that is embodied from an insulating material (2) and comprises at least one resilient force clamping connector (11) in the housing that is embodied from an insulating material (2), and also comprises at least one actuating element (3) that is received in a pivotable manner in the housing that is embodied from an insulating material (2), said actuating element being designed so as to open in each case at least one allocated resilient force clamping connector (11). The actuating element (3) comprises two lever arm sections (7a, 7b) that are spaced apart from one another and protrude at least in part with a pivot bearing region (23) into the housing that is embodied from an insulating material (2) and are connected one to the other spaced apart with respect to the pivot bearing region (23) by a transverse connecting piece (8) to a lever arm.

Abstract: The invention relates to a terminal (1), comprising at least one bus bar piece (5), at least one clamping spring (4), which is bent into a U shape and has a clamping section (6) that points at an angle in the direction of an associated bus bar piece section (5a) of the bus bar piece (5) and forms a clamping point for an electrical conductor to be connected with a free clamping end and with the bus bar piece section (5a) in order to form a spring force clamping connection (3), an insulating-material housing (2), which has at least one conductor insertion opening (7) that leads to an associated spring force clamping connection (3) and extends in a conductor insertion direction (L), and at least one operating lever (8) pivotably supported about a rotational axis (D), which operating lever interacts with at least one clamping spring (4) by means of an operating section (9) in order to open at least one clamping point of an associated spring force clamping connection (3) when the operating lever (8) is pivoted and

Abstract: The invention relates to a terminal (1), comprising at least one bus bar piece (5), at least one clamping spring (4), which is bent into a U shape and has a clamping section (6) that points at an angle in the direction of an associated bus bar piece section (5a) of the bus bar piece (5) and forms a clamping point for an electrical conductor to be connected with a free clamping end and with the bus bar piece section (5a) in order to form a spring force clamping connection (3), an insulating-material housing (2), which has at least one conductor insertion opening (7) that leads to an associated spring force clamping connection (3) and extends in a conductor insertion direction (L), and at least one operating lever (8) pivotably supported about a rotational axis (D), which operating lever interacts with at least one clamping spring (4) by means of an operating section (9) in order to open at least one clamping point of an associated spring force clamping connection (3) when the operating lever (8) is pivoted and

Abstract: A connection terminal having at least one busbar piece and at least one clamping spring. The connection terminal has at least one spring-force clamping connection formed from a clamping spring and a portion of a busbar piece, an insulating-material housing including at least one conductor insertion opening which leads to an spring-force clamping connection and extends in a conductor insertion direction, and at least one pivotably mounted operating lever designed to interact with at least one clamping spring in order to open at least one spring-force clamping connection. The operating lever can be arranged with its rotation axis in the conductor insertion opening or in the path of the conductor insertion opening in the direction of the clamping point. The connection terminal provides a space-saving and compact construction, which is also improved in respect of the force effect of the operating lever.

Abstract: The invention relates to a branch junction connector for self-stripping electrical contact of cable wires of electrical lines. It is proposed that, for this purpose, an advancing rotating cylinder be used, which is joined, via a rotating thrust bearing, with a contact tap element that is guided in a linear manner in an insulation housing in such a manner as to be rotationally rigid and to withstand pulling and pushing.

Abstract: An electrical connector is provided including a plug unit and a socket unit, both of which have one anti-shock sleeve for each pole, such that when the connector is closed the anti-shock sleeves of the socket unit are pushed into appropriately shaped uptake chambers of the anti-shock sleeves of the socket unit. To improve the stability of the closed connector, configure the anti-shock sleeves of the plug unit are configured with a multi-chamber cross section profile, preferably a two-chamber cross section profile. As a result, the second uptake chambers of the two-chamber anti-shock sleeves of the plug unit may provide additional variable coding of the connector.

Abstract: A spring loaded clamping connection for electrical conductors comprises a clamping spring and a current bar. The clamping spring is in the shape of a closed loop having a contact leg which lies parallel at the current bar and a clamping leg which crosses the free end of the current bar. It is proposed to provide at the end-part of the current bar two levels at different heights. In the lower level the contact leg lies on the current bar and in the upper level there is a platform of the current bar which cooperates with the clamping leg of the clamping spring to form a clamping unit.

Abstract: A front wiring clamp with cutting-clamping contacts is disclosed, which is reliable in operation even with large forces that act on pulling out the conductor or cross forces that act on the electrical conductor to be clamped. The front wiring clamp has stationary conductor uptake chambers in the insulation housing of the clamp, and each of these is assigned a tunable contact loop, whose foot end is mounted so that it can be turned by a turning link at or in the busbar or similar device and whose fork-shaped cutting-clamping head extends in the direction of turning motion of the contact loop.