A method of adjusting a switch of a device, which comprises using a biasing force-adjusting element, adjusting a magnitude of a biasing force imparted to a switching element of the switch by a biasing element disposed about the switching element, wherein the switching element is movably disposed within an interior cavity of a hollow body of the switch and the biasing force places the switching element in one of a first position and a second position. The first position corresponds to a first electrical state and the second position corresponds to a second electrical state.

A switch device includes a plurality of lead frames that is conductive and configured to electrically connectable to an external device, a contact-separation mechanism configured to allow the plurality of lead frames to be electrically connected to and separated from each other, and an electric element configured to connect the plurality of lead frames to each other. The electric element is surface-mounted on the lead frames and sealed with resin. In each of the lead frame, the boundary, such as a groove or a notch, is formed along the outer edge of the arrangement position of the electric element.

A brush switch with resistors includes a case, a fixed contact point pattern that is fixed to the case, a lever that is supported by the case in an inclinable manner, and a movable contact point brush that is movable by an operation of the lever such that the movable contact point either contacts to or does not contact to the fixed contact point. Wherein the fixed contact point pattern has multiple fixed contact points that are disposed separated from one another in the case, and multiple terminals each of which is connected to the multiple fixed contact points, and the movable contact point brush has multiple contact point spring pieces that separate from or contact with the multiple fixed contact points, respectively, and multiple resistors, which have different resistance values, that are attached to spaces between the multiple contact point spring pieces.

A lifter with damping is disclosed. It comprises: an outer casing, having an opening on a top end thereof, a gear rack formed on an inside of one side thereof, a guiding groove formed on an opposite side of the gear rack, and two accommodating bins extend downwards on the bottom of the outer casing; a moving body, movably installed inside the outer casing, wherein a round hole is formed in a middle portion of the moving body, a limiting hook is formed corresponding to the guiding groove so as to slide along the guiding groove, bottoms of the moving body corresponding to the two accommodating bins form a hollow slider, respectively, a grab bar is formed horizontally between the hollow sliders, and each hollow slider houses a spring; a damping gear, inserted into the round hole and rotatably connected to the gear rack; and a circulating hooking assembly.

A lifter with damping is disclosed. It comprises: an outer casing, having an opening on a top end thereof, a gear rack formed on an inside of one side thereof, a guiding groove formed on an opposite side of the gear rack, and two accommodating bins extend downwards on the bottom of the outer casing; a moving body, movably installed inside the outer casing, wherein a round hole is formed in a middle portion of the moving body, a limiting hook is formed corresponding to the guiding groove so as to slide along the guiding groove, bottoms of the moving body corresponding to the two accommodating bins form a hollow slider, respectively, a grab bar is formed horizontally between the hollow sliders, and each hollow slider houses a spring; a damping gear, inserted into the round hole and rotatably connected to the gear rack; and a circulating hooking assembly.

A device having push button switches for operating a power seat of a vehicle, includes a switch module in which a plurality of push button type switches for an input operation to drive a power seat to a target position and in a target direction are modularized; a plurality of touch sensors embedded in the plurality of push button type switches and configured to indicate operating directions of the power seat; a main controller configured to determine an operating direction of the power seat according to a sensing signal from a touch sensor in which a touch sensing operation is performed among the plurality of touch sensors; and a display configured to display the operating direction of the power seat determined by the main controller as one arrow and visually guide a user.

A switching device includes a housing, an operation member, a plurality of fixed contacts, a plurality of movable contacts, and a snap action mechanism for causing the movable contacts to operate. The snap action mechanism includes a plurality of first drivers in each of which a fulcrum that serves as a pivot point is formed on one end side of a given first driver and in which a given movable contact from among the movable contacts is provided on another end side of the given first driver; a second driver in which a pressing member to be pressed through the operation member is formed on one end side of the second driver and in which fulcrums that serve as pivot points are each formed on another end side of the second driver; and a coupling member integrally coupling the plurality of first drivers to constitute a first drive member.

A fastener, in particular of a chassis component, has at least one sensor and at least one transmitter of a monitoring device for monitoring at least one mechanical fastening parameter. At least one power supply unit is associated with the transmitter, that the transmitter and the power supply unit are connected to one another by means of a switching contact, that an electrical connection can be closed by means of the switching contact, that the switching contact is designed in such a way that the electrical connection is open when the fastener is installed properly and is closed only when the fastener is released, and that the transmitter is supplied with current and transmits a signal only when the electrical connection of the switching contact is closed.

A three-way switch associated with an entry point barrier may provide a security system with information regarding a position of the entry point barrier as it moves along a path of travel. As the entry point barrier moves, the three-way switch may come into proximity with an external object, and the three-way switch may indicate to the security system that a circuit associated with the three-way switch has been closed. The security system may determine that the entry point barrier is in a given position, and one or more security system policies associated with the given position may be activated.

The snap action switch of the present disclosure may include a housing with a plurality of protruding blocks extending inwardly, a plunger disposed on the housing, a first elastic component coupled to the plunger for providing a force against the plunger, a cam located within the housing and being movable by the plunger, a rotor located within the housing and associated with the cam, and a second elastic component coupled to the rotor for providing a force against the rotor. When the cam moves to a first position, the rotor may rotate such that a lower surface of the cam engages with an upper surface of the rotor, and when the cam moves to a second position, the rotor may continue to rotate such that the upper surface of the rotor engages with a lower surface of at least one of the plurality of protruding blocks of the housing.