Abstract:
A radio switch, in particular a snap-action switch, having an antenna, a transmitter assembly and a generator, wherein the antenna is electrically connected to the transmitter assembly in order to emit a signal which is generated by the transmitter assembly, wherein the transmitter assembly is accommodated on a circuit mount which is in the form of a panel, wherein the antenna is held in the radio switch on a mount substrate which is separate from the circuit mount.
Abstract:
A supplementary actuation device (1) inserted in a housing (2) is provided for the positioning of a bolt component (9) which is rotationally locked in position to the housing (2), wherein a signal is reliably delivered in the case of a resulting rotational locking of the housing (2) with the bolt component (9) by means of rotating the supplementary actuation device (1) together with the bolt component (9).
Abstract:
An electrical sliding contact switch having a housing in which a common contact body and at least one selective contact body having a contact surface are arranged. A sliding area including electrically insulating material is arranged adjacent to the contact area of the selective contact body. A contactor that is in continuous electrically conducting connection with the common contact body and has at least one sliding contact is either in electrically conducting connection with the selective contact body or touches the sliding area. An actuating member is furthermore arranged in the housing such that upon actuation, it slidingly moves the at least one sliding contact of the contactor on a sliding path from the contact surface of the selective contact body into the sliding area and/or out of the sliding area to the contact surface of the selective contact body. Furthermore, embodied in the sliding path, are zones that are not touched by the sliding contacts during transit of the sliding area.
Abstract:
An electrical switch has a common contact body (21) and a first selective contact body (22) and a second selective contact body (23). A contactor (25) is connected mechanically and in an electrically conducting manner to the common contact body (21). The contactor (25) comprises an elastic, electrically conducting material. It is formed originating from the basic form of a leaf spring into a multifunctional part having a fastening are (25a), a deformation area (25b) and a stiffened actuating area (25c) that terminates in a sliding curvature (27). The actuating area (25c) has two edge strips (12) that continue in contact fingers (26). Pairs of the contact fingers (26) can enclose contact surfaces (22b, 23b) that are disposed on the first selective contact body (22) and on the second selective contact body (23). The pre-tension of the contactor (25) causes the contact fingers (26) to be positioned against the contact surfaces (22b) of the first selective contact body (22). Pressure on the sliding curvature (27) elastically deforms the contactor (25), and the actuating area (25c) pivots upward with the contact fingers (26) so that the contact fingers (26) switchingly enclose the contact surfaces (23b) of the second selective contact body (23).
Abstract:
An electrical switch has a common contact body and a first selective contact body and a second selective contact body. A contactor is connected mechanically and in an electrically conducting manner to the common contact body. The contactor comprises an elastic, electrically conducting material. It is formed originating from the basic form of a leaf spring into a multifunctional part having a clamping area, a deformation area and a stiffened actuating area. The pre-tension of the contactor causes the contact fingers to be positioned against the contact surfaces of the first selective contact body. Pressure on the actuating area elastically deforms the contactor, and the actuating area pivots with the contact fingers so that the contact fingers switchingly enclose the contact surfaces of the second selective contact body.
Abstract:
A radio switch, in particular a snap-action switch, having an antenna, a transmitter assembly and a generator, wherein the antenna is electrically connected to the transmitter assembly in order to emit a signal which is generated by the transmitter assembly, wherein the transmitter assembly is accommodated on a circuit mount which is in the form of a panel, wherein the antenna is held in the radio switch on a mount substrate which is separate from the circuit mount.
Abstract:
An electrical sliding contact switch having a housing in which a common contact body and at least one selective contact body having a contact surface are arranged. A sliding area including electrically insulating material is arranged adjacent to the contact area of the selective contact body. A contactor that is in continuous electrically conducting connection with the common contact body and has at least one sliding contact is either in electrically conducting connection with the selective contact body or touches the sliding area. An actuating member is furthermore arranged in the housing such that upon actuation, it slidingly moves the at least one sliding contact of the contactor on a sliding path from the contact surface of the selective contact body into the sliding area and/or out of the sliding area to the contact surface of the selective contact body. Furthermore, embodied in the sliding path, are zones that are not touched by the sliding contacts during transit of the sliding area.
Abstract:
An induction generator, for a wireless switch, having a magnetic element with north pole and south pole contact sections, and a coil core having pole contact sections, which can contact with the north pole contact section and the south pole contact section. The magnetic element and the coil core are disposed so as to be movable relative to one another so that a reversal of the magnetic flux direction in the coil core can be generated when switching between first and second idle position, which define a direction of relative movement, in which the north pole and the south pole contact sections each contacts the respective associated pole contact sections. The induction generator has a magnetizable sliding contact section for sliding guidance of the relative movement between the coil core and magnetic element, and this sliding contact section extends parallel to the direction of movement.
Abstract:
An induction generator for a radio switch having a magnet element as well as an induction coil with a coil core, characterized in that the coil core is U-shaped, wherein a first contact position and a second contact position for the magnet element are defined on the limbs of the coil core, with a flux direction reversal taking place in each case in the coil core when a change takes place between said positions, wherein the magnet element is arranged such that it can move in a defined manner linearly between the contact positions on the induction generator in a direction in which the limbs are adjacent to one another.
Abstract:
An induction generator (100) for a remote switch which comprises a U-shaped magnetic diverter (102) with first and second limbs as well as a coil core (104) with an induction coil (106) arranged between the limbs. A movable magnetic element (110) is provided for switching the induction generator (100). When the magnetic element (110) is in its first position, the magnetic element (110) is connected with the first limb and the coil core (104) and, when the magnetic element (110) is in its second position, the magnetic element (110) is connected with the coil core (104) and the second limb.