An electromagnetic device comprising a coil configured electrically in series with and connected directly to a magnetizable switch that said coil controls where when the coil is energized said switch is drawn into contact with an electrical conductor to transmit power from the coil through the switch to said electrical conductor; and a method for instantaneously deenergizing a detached electrical conductor using an electromagnetic gate where operation of said electromagnetic gate and sustention of electrical power flow in said electrical conductor are mutually required; and a machine improvement comprising connecting the output out an electromagnet's circuit into the input of an electromagnetic switch's circuit so that the circuitry of the electromagnet acts in series with the electrical load.

An electronic switch includes a substrate and a rotator assembly. The rotator assembly is configured to prevent rotation between a first rotational configuration and a second rotational configuration in a first translational position of the rotator assembly, while the rotator assembly is configured to rotate between the first rotational configuration and the second rotational configuration in a second translational position of the rotator assembly. The second translational position of the rotator assembly is translationally offset from the first translational position of the rotator assembly. An electrical contact of the rotator assembly is configured to electrically connect an electronic input path of the substrate to an electronic output path of the substrate in the first rotational configuration and first translational position of the rotator assembly, but not to electrically connect the electronic input path to the electronic output path in the second rotational configuration of the rotator assembly or in the second translational position of the rotator assembly.

An electromagnetic relay including a housing, a cover, an adhesive which is interposed between a side part of the housing and an inner surface of the cover and which secures the housing and the cover, and a projection which is formed in at least one of the side part and the inner surface. The adhesive is filled in a gap between the side part and the inner surface.

An electromagnetic relay including a housing, a cover, an adhesive which is interposed between a side part of the housing and an inner surface of the cover and which secures the housing and the cover, and a projection which is formed in at least one of the side part and the inner surface. The adhesive is filled in a gap between the side part and the inner surface.

A relay includes a case and a coil unit is located in the case. Multiple first legs each have the first end thereof connected to the coil unit, and the second end thereof extending beyond the case. A second leg has the first end thereof located in the case and forms a contact, and the second end of the second leg extends beyond the case. A third leg includes an upright section and a transverse section which extends from the upright section and located in the case. The upright section has one end thereof extending beyond the case. An armature has a connection section connected to the transverse section, and a main section located beneath the contact. The connection section increases conductive area and flexibility of the armature in the case.

A power contactor and a method for producing a housing body for a power contactor are disclosed. In an embodiment a power contactor includes a first electrical contact, a second electrical contact, a switch element configured to provide an opened position and a closed position, wherein the switch element, in the closed position, contacts the first electrical contact and the second electrical contact with one another, and wherein the first electrical contact and the second electric contact are insulated from one another when the switch element is in the opened position and at least one temperature sensor integrated into the power contactor, wherein the sensor is configured to detect a temperature of the power contactor in a pre-defined distance from the first electrical contact and/or the second electrical contact.

A power contactor and a method for producing a housing body for a power contactor are disclosed. In an embodiment a power contactor includes a first electrical contact, a second electrical contact, a switch element configured to provide an opened position and a closed position, wherein the switch element, in the closed position, contacts the first electrical contact and the second electrical contact with one another, and wherein the first electrical contact and the second electric contact are insulated from one another when the switch element is in the opened position and at least one temperature sensor integrated into the power contactor, wherein the sensor is configured to detect a temperature of the power contactor in a pre-defined distance from the first electrical contact and/or the second electrical contact.

An electromagnetic relay including a housing, a cover, an adhesive which is interposed between a side part of the housing and an inner surface of the cover and which secures the housing and the cover, and a projection which is formed in at least one of the side part and the inner surface. The adhesive is filled in a gap between the side part and the inner surface.

An electromagnetic relay including a housing, a cover, an adhesive which is interposed between a side part of the housing and an inner surface of the cover and which secures the housing and the cover, and a projection which is formed in at least one of the side part and the inner surface. The adhesive is filled in a gap between the side part and the inner surface.

An electronic switch includes a substrate and a rotator assembly. The rotator assembly is configured to prevent rotation between a first rotational configuration and a second rotational configuration in a first translational position of the rotator assembly, while the rotator assembly is configured to rotate between the first rotational configuration and the second rotational configuration in a second translational position of the rotator assembly. The second translational position of the rotator assembly is translationally offset from the first translational position of the rotator assembly. An electrical contact of the rotator assembly is configured to electrically connect an electronic input path of the substrate to an electronic output path of the substrate in the first rotational configuration and first translational position of the rotator assembly, but not to electrically connect the electronic input path to the electronic output path in the second rotational configuration of the rotator assembly or in the second translational position of the rotator assembly.