An electrical switch with identifying features. Embodiments include an electrical switch that comprises a rocker that is pivotable between a first position and a second position such that the electrical circuit is energized when the rocker is in the first position and deenergized when the rocker is in the second position, a cover arranged within the rocker such that a front surface of the cover is viewable by a user; an interchangeable label arrangeable a rear surface of the cover, a light pipe arrangeable proximate a rear surface of the interchangeable label, and an illuminating element. In embodiments, the electrical switch may include a tactile switch arranged proximate a rear surface of the light pipe, such that the tactile switch can be activated by an application of rearward pressure to the cover.

An electrical switch with identifying features. Embodiments include an electrical switch that comprises a rocker that is pivotable between a first position and a second position such that the electrical circuit is energized when the rocker is in the first position and deenergized when the rocker is in the second position, a cover arranged within the rocker such that a front surface of the cover is viewable by a user; an interchangeable label arrangeable a rear surface of the cover, a light pipe arrangeable proximate a rear surface of the interchangeable label, and an illuminating element. In embodiments, the electrical switch may include a tactile switch arranged proximate a rear surface of the light pipe, such that the tactile switch can be activated by an application of rearward pressure to the cover.

Various examples of park brake interface modules which are utilized as human machine interfaces (HMI) in vehicles are provided. In one example, a park brake interface module for a vehicle includes an actuation member mounted to an electromechanical switch to actuate the park brake. The actuation member includes a finger pad opposite the front surface and the actuation member is movable between a brake apply position and a brake release position to actuate the vehicle park brake. In another example, the actuation member is pivotally mounted to the electromechanical switch device and the actuation member is pivotable between the brake apply position and the brake release positions to actuate the park brake.

The present disclosure provides apparatuses and methods for measuring power for a lighting control system. The present disclosure provides apparatuses and methods for measuring power for a lighting control system. The includes a lighting control module configured to cause a transmission of a quantity of electrical power to a lighting circuit of a light fixture electrically connected to the lighting control module, a detector circuit positioned in the lighting control module, and a controller in electrical communication with the detector circuit. The controller is specially programmed to correlate a quantity of electrical power transmitted to the lighting circuit to the response of the lighting circuit. The controller is further programmed to determine a power correction factor based on the correlation between the quantity of electrical power transmitted and the response. The power correction factor is configured to alter the response of the lighting circuit to a predetermined value.

An electrical switch with identifying features. Embodiments include an electrical switch that comprises a rocker that is pivotable between a first position and a second position such that the electrical circuit is energized when the rocker is in the first position and deenergized when the rocker is in the second position, a cover arranged within the rocker such that a front surface of the cover is viewable by a user; an interchangeable label arrangeable a rear surface of the cover, a light pipe arrangeable proximate a rear surface of the interchangeable label, and an illuminating element. In embodiments, the electrical switch may include a tactile switch arranged proximate a rear surface of the light pipe, such that the tactile switch can be activated by an application of rearward pressure to the cover.

An electrical switch with identifying features. Embodiments include a toggle assembly for an electrical switch that comprises a switch body including a contact mechanism configured to control an electrical circuit. A movement of the toggle assembly from a first position to a second position is mechanically communicated to the contact mechanism. The toggle assembly can also include a user-operable actuator portion elongated between the switch engagement portion and a front end of the toggle assembly enabling a user to pivot the toggle assembly from the first position to the second position. Embodiments include an interchangeable tile removably coupleable to the toggle. The interchangeable tile can comprise an identifier. Embodiments include an illuminating element and a cover.

An electrical equipment (1) for an electrical installation suitable is provided, connected to an electrical grid having at least: —a primary functional module (2) suitable and intended for carrying out a current interruption function, and an additional functional module (5) for carrying out at least one function requiring a power supply The function of the additional functional module (5) is selected, alone or in combination, from a function of measuring at least one physical parameter and/or a function of emitting and/or receiving electromagnetic radiation, and/or a display function, and/or an actuation function, and/or a data processing function, and/or a function of converting a physical signal into an electrical signal or vice versa.

An illuminated electrical load control is provided for controlling electrical power to a light-emitting diode (LED) lighting load. The load control includes a wall-box mounted housing, and an electrical switch assembly disposed at least partially within the housing. The switch assembly includes an actuator coupled to transition the switch assembly between an ON state, where AC current flows to the LED lighting load, and an OFF state, where current is interrupted from flowing to the LED lighting load. Further, the load control includes an illumination assembly with an indicator light to illuminate, at least in part, the load control when the switch assembly is in OFF state, and a current-limiting circuit connected across terminals of the switch assembly, and configured to limit leakage current through to the LED lighting load to below an activation current of the LED lighting load when the switch assembly is in the OFF state.

A switch apparatus according to one embodiment includes an operation portion, a surface film and a light source. The operation portion has an elongated shape with first and second opposite ends in a longitudinal direction of the operation portion, receives a pressing operation of a user at least at one of the first and second ends, and is translucent. The surface film is formed on a surface of the operation portion and is translucent. The light source is arranged on a back-surface side of the operation portion and emits light toward the at least one of the first and second ends.

A variety of active cover plate configurations with prongs configured to contact side screw terminals of electrical receptacles are described. In one illustrative embodiment, an active cover plate includes a multi-gang face plate configured to be installed over a multi-gang light switch installation, the multi-gang faceplate including at least two apertures sized to accept a manually manipulatable element of switches in the multi-gang light switch installation. Prongs extend rearward from the multi-gang faceplate around at least one of the apertures.