Abstract: An electrical multidirectional force sensor includes a sensor element having a sensor pin and a sensor plate and a circuit board. The sensor pin is movable in at least two actuation directions. The sensor plate is integrally connected to multiple strip-shaped support elements. Each strip-shaped support element has an end portion with an opening. The sensor plate and the strip-shaped support elements are cut free in one piece from a metal plate. The sensor plate is connected to the sensor pin to move relative to the circuit board in correspondence with movement of the sensor pin.

Abstract: A control element for roof or window adjustment in a motor vehicle includes a surface and a sensor. The surface has an introduced recess and a surface portion. The surface portion is connected to the surface in a gap-free manner above the recess. The surface portion only partially covers the recess. The sensor is formed within the surface portion or is arranged onto the bottom side thereof to detect deformations of the surface portion.

Abstract: An electrical multidirectional force sensor includes a sensor element having a sensor pin and a sensor plate and a circuit board. The sensor pin is movable in at least two actuation directions. The sensor plate is integrally connected to multiple strip-shaped support elements. Each strip-shaped support element has an end portion with an opening. The sensor plate and the strip-shaped support elements are cut free in one piece from a metal plate. The sensor plate is connected to the sensor pin to move relative to the circuit board in correspondence with movement of the sensor pin.

Abstract: A switching device for actuating drive elements includes first switching elements situated on a housing surface to be actuatable by fingers of a person and a second switching element situated on a housing surface to be actuatable by a palm, a palm heel, or a thumb of the person. The first and second switching elements are formed by touch surface sensors without switching contacts. In one variation, actuation of one of the first switching elements causes actuation of a corresponding one of the drive elements only when the second switching element is actuated during the actuation of the one of the first switching elements. In another variation, simultaneous actuation of one of the first switching elements and the second switching element causes a drive element corresponding to the one of the first switching elements to be actuated according to a function corresponding to the second switching element.

Abstract: An electromagnetic feedback actuator for an operating element includes an electromagnet, a magnet armature, and a metal body. The electromagnet includes a magnetic coil and a magnetic core. The magnet armature is moveable relative to the electromagnet. The operating element includes an actuating element (e.g., touch surface, sensor surface). The magnet armature is mechanically coupled to the operating element to provide a force pulse to the operating element in response to contact with, or pressure actuation on, an actuating element of the operating element. The electromagnet is arranged in the metal body. The metal body, in integral fashion, forms the magnet armature, a magnet yoke for the magnetic core of the electromagnet, and a holder for the electromagnet. An arrangement includes at least one such electromagnetic feedback actuator coupled to an operating element.

Abstract: A switching device for actuating drive elements includes first switching elements situated on a housing surface to be actuatable by fingers of a person and a second switching element situated on a housing surface to be actuatable by a palm, a palm heel, or a thumb of the person. The first and second switching elements are formed by touch surface sensors without switching contacts. In one variation, actuation of one of the first switching elements causes actuation of a corresponding one of the drive elements only when the second switching element is actuated during the actuation of the one of the first switching elements. In another variation, simultaneous actuation of one of the first switching elements and the second switching element causes a drive element corresponding to the one of the first switching elements to be actuated according to a function corresponding to the second switching element.

Abstract: A control element for roof or window adjustment in a motor vehicle includes a surface and a sensor. The surface has an introduced recess and a surface portion. The surface portion is connected to the surface in a gap-free manner above the recess. The surface portion only partially covers the recess. The sensor is formed within the surface portion or is arranged onto the bottom side thereof to detect deformations of the surface portion.

Abstract: A device for controlling multiple functions includes a switch panel. The switch panel includes control panels extending along a longitudinal extension of the switch panel. The switch panel is pivotably mounted about an axis of rotation parallel with the longitudinal extension to pivot about the axis of rotation in response to manual actuation of the switch panel by manual actuation of the control panels. The switch panel is movable with respect to the longitudinal extension of the switch panel and is fixed with respect to a transverse extension of the switch panel perpendicular to the longitudinal extension. Force sensors respectively associated with the control panels are distributed along the longitudinal extension of the switch panel. Actuation of the switch panel by actuating one of the control panels triggers a function depending on which one control panel is actuated and the force sensors detect which control panel is actuated.

Abstract: An electromagnetic feedback actuator for an operating element includes an electromagnet, a magnet armature, and a metal body. The electromagnet includes a magnetic coil and a magnetic core. The magnet armature is moveable relative to the electromagnet. The operating element includes an actuating element (e.g., touch surface, sensor surface). The magnet armature is mechanically coupled to the operating element to provide a force pulse to the operating element in response to contact with, or pressure actuation on, an actuating element of the operating element. The electromagnet is arranged in the metal body. The metal body, in integral fashion, forms the magnet armature, a magnet yoke for the magnetic core of the electromagnet, and a holder for the electromagnet. An arrangement includes at least one such electromagnetic feedback actuator coupled to an operating element.

Abstract: An operating device for an actuator-adjustable motor vehicle seat includes a control element and multiple force sensors. The control element has a contour which simulates the outline shape of the motor vehicle seat. Pressing actuations directed to various locations on the contour of the control element trigger different adjustment movements of the vehicle seat. The pressing actuations are detected by the force sensors which can measure horizontal and vertical forces. The actuation position and the actuation direction of a finger on the control element may be detected from the reaction forces of the force sensors. The force sensors are designed as three force sensors that measure in one dimension; two of the force sensors are situated in parallel to one another; and a third force sensor is situated perpendicularly with respect to the other two force sensors.

Abstract: An electric pushbutton switch includes a pushbutton, a rocker, and a housing. The pushbutton has a substantially rectangular actuating surface. The pushbutton is received within the housing and is displaceable connected to the housing. The pushbutton displaces with respect to the housing by way of a pressure actuation onto the actuating surface, thus triggering an electrical switching element. The rocker is box-shaped and is arranged within the housing beneath the pushbutton body and is at least partially encompassed by the pushbutton. The rocker is mounted on an inner longitudinally extending wall of the housing by a pivot bearing. By actuating the actuating surface, the rocker pivots about the pivot bearing while supporting the pushbutton along the longitudinal extension of the pushbutton.

Abstract: An electronic device includes a housing, a conductive foil, an elastomer body, and a strip composed of a non-elastomeric plastic. The conductive foil is electrically connected to the housing and has a functional section situated outside of the housing. The functional section of the conductive foil has a front side bearing sensors and/or display elements and is installable to a control panel. The elastomer body and the strip are positioned between an outer side of the housing and a back side of the functional section of the conductive foil.

Abstract: A device for operating multiple functions includes an operating element and a base. The base has side bearings and pins. The operating element has rotational axle end sections mounted in guide slots of the side bearings, respectively, to pivotably be mounted to the base about an axis of rotation to thereby be movable between at least two positions. At least one of the positions is assigned to a switching function. The operating element is further mounted to the base on a centered bearing between the side bearings of the base, and the operating element is supported on the pins of the base.

Abstract: A device for operating multiple functions includes an operating element and a base. The base has side bearings with guide slots, hinge joints with pivot pins, and an actuator. The operating element is mounted in the guide slots to pivotably be mounted to the side bearings about an axis of rotation to thereby be movable between positions. At least one of the positions is assigned to a switching function. The operating element is mounted to the base on a centered bearing between the side bearings. The operating element is supported on the pivot pins. Upon the operating element being actuated to trigger a switching function, the actuator produces a haptic feedback by generating an actuating force on the operating element which causes the pivot pins to pivot in a direction parallel to the axis of rotation thereby causing the operating element to axially displace along this same direction.

Abstract: A device for controlling multiple functions includes a switch panel. The switch panel includes control panels extending along a longitudinal extension of the switch panel. The switch panel is pivotably mounted about an axis of rotation parallel with the longitudinal extension to pivot about the axis of rotation in response to manual actuation of the switch panel by manual actuation of the control panels. The switch panel is movable with respect to the longitudinal extension of the switch panel and is fixed with respect to a transverse extension of the switch panel perpendicular to the longitudinal extension. Force sensors respectively associated with the control panels are distributed along the longitudinal extension of the switch panel. Actuation of the switch panel by actuating one of the control panels triggers a function depending on which one control panel is actuated and the force sensors detect which control panel is actuated.

Abstract: An electric pushbutton switch includes a pushbutton, a rocker, and a housing. The pushbutton has a substantially rectangular actuating surface. The pushbutton is received within the housing and is displaceable connected to the housing. The pushbutton displaces with respect to the housing by way of a pressure actuation onto the actuating surface, thus triggering an electrical switching element. The rocker is box-shaped and is arranged within the housing beneath the pushbutton body and is at least partially encompassed by the pushbutton. The rocker is mounted on an inner longitudinally extending wall of the housing by a pivot bearing. By actuating the actuating surface, the rocker pivots about the pivot bearing while supporting the pushbutton along the longitudinal extension of the pushbutton.

Abstract: An electronic device includes a housing, a conductive foil, an elastomer body, and a strip composed of a non-elastomeric plastic. The conductive foil is electrically connected to the housing and has a functional section situated outside of the housing. The functional section of the conductive foil has a front side bearing sensors and/or display elements and is installable to a control panel. The elastomer body and the strip are positioned between an outer side of the housing and a back side of the functional section of the conductive foil.

Abstract: A device for operating multiple functions includes an operating element and a base. The base has side bearings and pins. The operating element has rotational axle end sections mounted in guide slots of the side bearings, respectively, to pivotably be mounted to the base about an axis of rotation to thereby be movable between at least two positions. At least one of the positions is assigned to a switching function. The operating element is further mounted to the base on a centered bearing between the side bearings of the base, and the operating element is supported on the pins of the base.

Abstract: A device for operating multiple functions includes an operating element and a base. The base has side bearings with guide slots, hinge joints with pivot pins, and an actuator. The operating element is mounted in the guide slots to pivotably be mounted to the side bearings about an axis of rotation to thereby be movable between positions. At least one of the positions is assigned to a switching function. The operating element is mounted to the base on a centered bearing between the side bearings. The operating element is supported on the pivot pins. Upon the operating element being actuated to trigger a switching function, the actuator produces a haptic feedback by generating an actuating force on the operating element which causes the pivot pins to pivot in a direction parallel to the axis of rotation thereby causing the operating element to axially displace along this same direction.

Abstract: A rotary actuator includes a stator on which a sensor surface is arranged and a rotor configured to rotate about the stator. The rotor forms an actuating surface for the sensor surface. An interval fixing device such as a rotationally fixed sliding disk is arranged between the actuating surface and the sensor surface. A spring is configured to press the sensor surface towards the actuating surface.