Abstract: An electrical relay includes a magnetic system, a contact system and a slider. The magnetic system includes an armature. The contact system includes a moveable spring contact and a fixed spring contact. The moveable spring contact is moveable between an open position and a closed position. The moveable spring contact is in electrical contact with the fixed spring contact in the closed position. The slider connects the moveable spring contact to the armature. The slider transfers movement of the armature to the moveable spring contact. The slider has at least one contact opening element extending there from. The contact opening element strikes the moveable spring contact during movement of the moveable spring contact to the open position to break any existing weld between the moveable spring contact and the fixed spring contact.

Abstract: An electrical relay includes a magnetic system, a contact system and a slider. The magnetic system includes an armature. The contact system includes a moveable spring contact and a fixed spring contact. The moveable spring contact is moveable between an open position and a closed position. The moveable spring contact is in electrical contact with the fixed spring contact in the closed position. The slider connects the moveable spring contact to the armature. The slider transfers movement of the armature to the moveable spring contact. The slider has at least one contact opening element extending there from. The contact opening element strikes the moveable spring contact during movement of the moveable spring contact to the open position to break any existing weld between the moveable spring contact and the fixed spring contact.

Abstract: A coil former for an electromagnetic relay is configured to receive a core and a coil winding. The coil former includes a first coil flange, a second coil flange, and a cylindrical winding area for fixing a coil winding arranged between the first and second coil flange, wherein at least one of the coil flanges is shaped such that at least a portion of one coil flange sits flush with the winding area of the coil former in a region of a periphery of the coil former. Also, a coil body for an electromagnetic relay includes a base integrally connected to the coil former. The coil former or the coil body is formed such that, in the production thereof, it has no more than three demolding directions for a master mould.

Abstract: A relay includes a magnetic system provided with an armature and a contact system provided with a first contact and a moveable second contact. An electrically insulating base plate is arranged between the magnetic system and the contact system and has an opening therein. First and second walls extend from the base plate and are arranged between the opening and the magnetic system or the opening and the contact system. An actuator extends between the armature and the contact system through the opening and transfers movement of the armature to the second contact to move the second contact into electrical engagement with the first contact. The actuator has a third wall that extends toward the base plate and between the first and second walls. The first, second, and third walls extend a leakage path of an electrical leakage current between the contact system and the magnetic system.

Abstract: A magnet system for a bi-stable relay includes a coil, first and second core yoke members, and an armature. The coil has a first polarity state and a second polarity state. Each of the first and second core yoke members has a core arm and a yoke arm. Each of the yoke arms of the first and second core yoke members has a pole face. The armature has substantially parallel armature core arms separated by a permanent magnet. The armature is pivotally mounted in an air gap between the pole faces of the yoke arms of the first and second core yoke members such that the armature core arms contact the yoke arms in a first switch position corresponding to the first polarity state and in a second switch position corresponding to the second polarity state. The armature core arms are arranged substantially perpendicular to a center axis of the coil.

Abstract: A magnet system for an electrical actuator includes a substantially U-shaped magnet yoke having substantially parallel first and second pole legs connected by a yoke web. The first pole leg has a longitudinal end section bent out of a plane of the first pole leg. A longitudinal side of the longitudinal end section forms a first magnet pole. The second pole leg has an end face forming a second magnet pole.

Abstract: A heavy duty relay can safely switch a current of 40 A to 1 kA. The heavy duty relay is provided with a changeover spring which can be resiliently deflected by means of a switching force and with a normally-open contact, against which a contact point of the changeover spring is electrically conductively pressed in a switching position. The normally-open contact is arranged on a normally-open spring contact, which exhibits a higher spring stiffness than the changeover spring and is resiliently deflected in the switching position, and the changeover spring and/or the normally-open spring contact comprises a deflection region at least partially surrounded by a weakened zone. The spring stiffness of the deflection region is reduced relative to the region of the changeover spring and/or the normally-open spring contact surrounding the weakened zone.

Abstract: An electrical relay includes a magnetic system, a contact system and a slider. The magnetic system includes an armature. The contact system includes a moveable spring contact and a fixed spring contact. The moveable spring contact is moveable between an open position and a closed position. The moveable spring contact is in electrical contact with the fixed spring contact in the closed position. The slider connects the moveable spring contact to the armature. The slider transfers movement of the armature to the moveable spring contact. The slider has at least one contact opening element extending there from. The contact opening element strikes the moveable spring contact during movement of the moveable spring contact to the open position to break any existing weld between the moveable spring contact and the fixed spring contact.

Abstract: A magnet system for a bi-stable relay includes a coil, first and second core yoke members, and an armature. The coil has a first polarity state and a second polarity state. Each of the first and second core yoke members has a core arm and a yoke arm. Each of the yoke arms of the first and second core yoke members has a pole face. The armature has substantially parallel armature core arms separated by a permanent magnet. The armature is pivotally mounted in an air gap between the pole faces of the yoke arms of the first and second core yoke members such that the armature core arms contact the yoke arms in a first switch position corresponding to the first polarity state and in a second switch position corresponding to the second polarity state. The armature core arms are arranged substantially perpendicular to a center axis of the coil.

Abstract: A relay includes a magnetic system provided with an armature and a contact system provided with a first contact and a moveable second contact. An electrically insulating base plate is arranged between the magnetic system and the contact system and has an opening therein. First and second walls extend from the base plate and are arranged between the opening and the magnetic system or the opening and the contact system. An actuator extends between the armature and the contact system through the opening and transfers movement of the armature to the second contact to move the second contact into electrical engagement with the first contact. The actuator has a third wall that extends toward the base plate and between the first and second walls. The first, second, and third walls extend a leakage path of an electrical leakage current between the contact system and the magnetic system.

Abstract: A relay comprises a main body containing first, second, and third contact carriers, connection pins, and a magnetic system. The first, second, and third contact carriers are provided with contacts. Each of the first, second, and third contact carriers is connected to at least one of the connection pins. The connection pins protrude outward from a connection side of the relay. The magnetic system is mechanically coupled to at least one of the first, second and third contact carriers for changing switching states of the contacts. An insertion member having a plurality of webs is arranged adjacent to the connection side. The insertion member is introduced into the main body from an assembly side adjoining the connection side such that one of the webs of the insertion member is positioned between each of the first, second, and third carrier contacts.

Abstract: The invention relates to an electromagnetic relay comprising a changeover contact and a working contact, the changeover contact abutting an stop in the open position. The changeover contact interacts via a slide member with an armature plate, which is arranged on a different side of the coil, opposite the changeover contact. The stop comprises an abutment surface, which is arranged below contact buttons of the changeover contact and abuts the changeover contact below the contact buttons in the open position. Improved activation behavior of the relay is achieved as a result of this position of the abutment surface. The useful life of the relay is also lengthened as a result of this embodiment of the stop.

Abstract: The invention relates to a relay comprising a coil bobbin, a core penetrating the coil bobbin and a yoke. To achieve a high switching force with a low overall height, the cross-sectional area of the core is greater in the region toward the transition to the yoke than in the central region of the coil bobbin. Increased magnetic flux can be conveyed from the core owing to the cross-sectional enlargement and at the same time more coil windings can be arranged in the central region owing to the reduced cross-section there. Both measures act together and allow high switching forces with low overall height.

Abstract: A heavy duty relay can safely switch a current of 40 A to 1 kA. The heavy duty relay is provided with a changeover spring which can be resiliently deflected by means of a switching force and with a normally-open contact, against which a contact point of the changeover spring is electrically conductively pressed in a switching position. The normally-open contact is arranged on a normally-open spring contact, which exhibits a higher spring stiffness than the changeover spring and is resiliently deflected in the switching position, and the changeover spring and/or the normally-open spring contact comprises a deflection region at least partially surrounded by a weakened zone. The spring stiffness of the deflection region is reduced relative to the region of the changeover spring and/or the normally-open spring contact surrounding the weakened zone.

Abstract: A relay having a base on which is arranged an electromagnetic system that actuates at least one pair of closing contact springs and at least one pair of opening contact springs where actuation is effected by a slide having actuation lugs located at different heights relative to the fixing of the active spring contacts for actuating the active opening spring contacts at a height different from that of the active closing spring contacts so that the characteristic curve of the magnetic system can be better adjusted to that of the spring contacts.

Abstract: The invention relates to a relay comprising a coil bobbin, a core penetrating the coil bobbin and a yoke. To achieve a high switching force with a low overall height, the cross-sectional area of the core is greater in the region toward the transition to the yoke than in the central region of the coil bobbin. Increased magnetic flux can be conveyed from the core owing to the cross-sectional enlargement and at the same time more coil windings can be arranged in the central region owing to the reduced cross-section there. Both measures act together and allow high switching forces with low overall height.

Abstract: An electrical switching element comprising a housing having an elongated base. An electrical coil is wrapped around a yoke and arranged in the housing such that a center axis of the electrical coil is positioned parallel to the elongated base of the housing. An armature having a first switching contact is mounted in a sprung manner and in operative connection with the armature. A first low-profile contact is connected to the first switching contact, and a second low-profile contact is connected to the second switching contact.

Abstract: The invention relates to a relay designed with integral parts to simplify assembly, reduce manufacturing costs, and increase strength. The relay has a coil base member. The coil base member has a base member and a coil member integrally connected. The base member has an upper side, side faces and a bottom surface. The coil member has inner sides. The coil base member has a side opening that extends from the inner sides of the coil member to the upper side of the base member and to the side faces and bottom surface of the base member.

Abstract: The invention relates to a relay designed with integral parts to simplify assembly, reduce manufacturing costs, and increase strength. The relay has a coil base member. The coil base member has a base member and a coil member integrally connected. The base member has an upper side, side faces and a bottom surface. The coil member has inner sides. The coil base member has a side opening that extends from the inner sides of the coil member to the upper side of the base member and to the side faces and bottom surface of the base member.

Abstract: An electrical switching element comprising a housing having an elongated base. An electrical coil is wrapped around a yoke and arranged in the housing such that a center axis of the electrical coil is positioned parallel to the elongated base of the housing. An armature having a first switching contact is mounted in a sprung manner and in operative connection with the armature. A first low-profile contact is connected to the first switching contact, and a second low-profile contact is connected to the second switching contact.