Abstract: A system comprises an industrial enclosure, first and second magnetic controls in close proximity to one another, and a magnetic field sensor. The first and second magnetic controls are secured to an outer surface of a cover of the industrial enclosure without penetrating an inner surface of the cover. The magnetic field sensor within the industrial enclosure senses a characteristic of the first magnetic control and a characteristic of the second magnetic control, and generates a signal corresponding to each of the characteristics. The signal is used by a controller to identify a setting of each of the first and second magnetic controls. Each of the first and second magnetic controls are positioned proximate to one another and each has a polarity and/or magnetic field strength that does not interfere with the detection of the others respective characteristic.

Abstract: An electrical device of a network of electrical devices can include an auto-commissioning device having a transceiver and an auto-commissioning engine, where the transceiver communicates with an adjacent transceiver of an adjacent electrical device, where the auto-commissioning engine, based on communication between the transceiver and the adjacent transceiver, identifies and commissions the adjacent electrical device.

Abstract: A ground fault circuit interrupter (GFCI) breaker testing system can include an enclosure having at least one wall that forms a cavity. The system can also include at least one GFCI breaker disposed within the cavity. The system can further include a sensing circuit assembly having at least one switch, where the at least one switch is electrically coupled to the at least one GFCI breaker. The system can also include a user interface assembly disposed, at least in part, outside the cavity, where the user interface assembly is coupled to the sensing circuit assembly, where the user interface assembly instructs the at least one switch to test the at least one GFCI breaker.

Abstract: A system comprises a smart device that includes a processor and a memory. The smart device processor is configured to executed instructions stored in memory and the smart device to: wirelessly detect both the presence of a non-commissioned field-deployed product and a unique identification (ID) associated with the non-commissioned field-deployed product; take a photograph of the non-commissioned field-deployed product; obtain location data of the non-commissioned field-deployed product; and wirelessly transmit the unique ID, photograph and location data to establish a commissioned status of the non-commissioned field-deployed product.

Abstract: A system comprises an explosion proof device and an intrinsically safe device. The explosion proof device is coupled to a power supply. The intrinsically safe device includes a user interface. The explosion proof device is configured to induce inductive coupling with the intrinsically safe device. The inductive coupling between the explosion proof device and the intrinsically safe device enables the transfer of power from the explosion proof device to the user interface of the intrinsically safe device. The inductive coupling can additionally enable the transfer of data between the explosion proof device and the intrinsically safe device.

Abstract: A moisture control system for an electrical enclosure can include a control module. The system can also include a drain assembly coupled to the control module, where the drain assembly is disposed, at least in part, within the cavity of the electrical enclosure, where the drain assembly is configured to remove, based on instructions received from the control module, liquid from the cavity to the ambient environment.

Abstract: A system comprises an industrial enclosure, first and second magnetic controls in close proximity to one another, and a magnetic field sensor. The first and second magnetic controls are secured to an outer surface of a cover of the industrial enclosure without penetrating an inner surface of the cover. The magnetic field sensor within the industrial enclosure senses a characteristic of the first magnetic control and a characteristic of the second magnetic control, and generates a signal corresponding to each of the characteristics. The signal is used by a controller to identify a setting of each of the first and second magnetic controls. Each of the first and second magnetic controls are positioned proximate to one another and each has a polarity and/or magnetic field strength that does not interfere with the detection of the others respective characteristic.

Abstract: A thermal monitoring system includes at least one of an infrared sensor and a plurality of infrared sensors arranged in an array. Each infrared sensor has a resolution including a plurality of pixels. A controller is configured to create a thermal image of an area to be monitored based at least in part on the plurality of pixels of each infrared sensor. A thermal monitoring assembly includes an electrical panel including a plurality of electrical components located within the electrical panel. The at least one of an infrared sensor and the plurality of infrared sensors arranged in an array, either alone or in combination with additional sensors, are located inside the electrical panel. Methods of monitoring various parameters including a temperature of the plurality of electrical components located inside the electrical panel are also provided.

Abstract: A system comprises an industrial enclosure, a first magnetic control and a second magnetic control. The industrial enclosure has a cover with an outer surface. The second magnetic control is nested within the first magnetic control, and the nested magnetic controls are secured to the outer surface of the cover of the enclosure.

Abstract: An enclosure diagnostic and control system is described herein. The system can include a controller having a storage repository, where the storage repository includes at least one threshold value and at least one algorithm. The system can also include an enclosure communicably coupled to the controller and electrically coupled to a field device. The system can further include a number of sensors communicably coupled to the controller, where the sensors measure a number of field values of a number of parameters associated with the field device. The controller can evaluate the field values using the at least one algorithm to generate an evaluated value. The controller can output a control signal based on the evaluated value.

Abstract: A system includes a hot wire and a neutral wire configured to establish a closed circuit between a power source and a load. The system further includes first and second transformers as well as a sensor. The first current transformer is coupled to the hot wire and is configured to introduce a first test current, with a first polarity, into the hot wire. The second current transformer is coupled to the neutral wire and configured to substantially simultaneously introduce a second test current into the neutral wire. The second test current has the same polarity as the first test current. The sensor is configured to sense an asymmetry between the first and second test currents and is further configured to cause interruption of the closed circuit upon sensing the asymmetry.

Abstract: An electrical device of a network of electrical devices can include an auto-commissioning device having a transceiver and an auto-commissioning engine, where the transceiver communicates with an adjacent transceiver of an adjacent electrical device, where the auto-commissioning engine, based on communication between the transceiver and the adjacent transceiver, identifies and commissions the adjacent electrical device.

Abstract: A ground fault circuit interrupter (GFCI) breaker testing system can include an enclosure having at least one wall that forms a cavity. The system can also include at least one GFCI breaker disposed within the cavity. The system can further include a sensing circuit assembly having at least one switch, where the at least one switch is electrically coupled to the at least one GFCI breaker. The system can also include a user interface assembly disposed, at least in part, outside the cavity, where the user interface assembly is coupled to the sensing circuit assembly, where the user interface assembly instructs the at least one switch to test the at least one GFCI breaker.

Abstract: A system can include at least one circuit breaker. The system can also include a prognostic and health monitoring (PHM) system. The PHM system can include at least one measuring device that measures at least one parameter associated with the at least one circuit breaker. The PHM system can also include a controller that receives measurements made by the at least one measuring device and analyzes the measurements to evaluate a performance of the at least one circuit breaker. The measurements can be made while the at least one circuit breaker is in service.

Abstract: A system includes a hot wire and a neutral wire configured to establish a closed circuit between a power source and a load. The system further includes first and second transformers as well as a sensor. The first current transformer is coupled to the hot wire and is configured to introduce a first test current, with a first polarity, into the hot wire. The second current transformer is coupled to the neutral wire and configured to substantially simultaneously introduce a second test current into the neutral wire. The second test current has the same polarity as the first test current. The sensor is configured to sense an asymmetry between the first and second test currents and is further configured to cause interruption of the closed circuit upon sensing the asymmetry.

Abstract: A thermal monitoring system includes at least one of an infrared sensor and a plurality of infrared sensors arranged in an array. Each infrared sensor has a resolution including a plurality of pixels. A controller is configured to create a thermal image of an area to be monitored based at least in part on the plurality of pixels of each infrared sensor. A thermal monitoring assembly includes an electrical panel including a plurality of electrical components located within the electrical panel. The at least one of an infrared sensor and the plurality of infrared sensors arranged in an array, either alone or in combination with additional sensors, are located inside the electrical panel. Methods of monitoring various parameters including a temperature of the plurality of electrical components located inside the electrical panel are also provided.

Abstract: A system comprises a smart device that includes a processor and a memory. The smart device processor is configured to executed instructions stored in memory and the smart device to: wirelessly detect both the presence of a non-commissioned field-deployed product and a unique identification (ID) associated with the non-commissioned field-deployed product; take a photograph of the non-commissioned field-deployed product; obtain location data of the non-commissioned field-deployed product; and wirelessly transmit the unique ID, photograph and location data to establish a commissioned status of the non-commissioned field-deployed product.

Abstract: A moisture control system for an electrical enclosure can include a control module. The system can also include a drain assembly coupled to the control module, where the drain assembly is disposed, at least in part, within the cavity of the electrical enclosure, where the drain assembly is configured to remove, based on instructions received from the control module, liquid from the cavity to the ambient environment.

Abstract: A system comprises an explosion proof device and an intrinsically safe device. The explosion proof device is coupled to a power supply. The intrinsically safe device includes a user interface. The explosion proof device is configured to induce inductive coupling with the intrinsically safe device. The inductive coupling between the explosion proof device and the intrinsically safe device enables the transfer of power from the explosion proof device to the user interface of the intrinsically safe device. The inductive coupling can additionally enable the transfer of data between the explosion proof device and the intrinsically safe device.

Abstract: A system comprises an industrial enclosure, a first magnetic control and a second magnetic control. The industrial enclosure has a cover with an outer surface. The second magnetic control is nested within the first magnetic control, and the nested magnetic controls are secured to the outer surface of the cover of the enclosure.