Abstract:
A fault circuit indicator (FCI) detection system for electrical equipment disposed in an enclosure or vault having an above-ground vent pipe exhaust outlet comprises one or more sensors disposed in the enclosure or vault to sense a condition of at least one unit of the electrical equipment. A sensored analytics unit (SAU) is coupled to the sensors to receive sensor data and analyze the sensor data, the SAU generating a corresponding analyzed data signal that provides information related to a condition of the at least one unit of electrical equipment. A transceiver is disposed inside at least a portion of the vent pipe to receive the analyzed data signal, wherein the transceiver is configured to communicate the analyzed data signal. A visual indicator is disposed on or within the vent pipe comprising one or more visual indicators, such as LEDs, driven by a driving circuit board to provide a visual signal corresponding to the condition of the at least one unit of electrical equipment.
Abstract:
A data communication apparatus, system, and method are described. The data communication system comprises a transceiver disposed on an entrance port to an enclosure, such as an underground enclosure. The transceiver includes a housing, the housing mountable to the entrance port, wherein the transceiver is configured to communicate with a network outside of the underground enclosure. The data communication system also includes a monitoring device disposed in the underground enclosure that provides data related to a real-time condition within the underground enclosure. The data communication system also includes a sensor analytics unit to process the data from the monitoring device/sensor and generate a processed data signal and to communicate the processed data signal to the transceiver.
Abstract:
An underground data communication apparatus, system, and method are described. The data communication system includes a transceiver disposed on an entrance port to an underground vault or enclosure, where the transceiver includes a rugged housing, where at least a portion of the rugged housing extends above the surface of the entrance port. A monitoring device is disposed in the vault. The monitoring device can be a sensor that provides data related to a real-time condition within the vault. In addition, the data communication system includes a gateway unit that relays the data to the transceiver. The gateway/transceiver can take a combination of wireless and/or wired signals from the monitoring device which provides real-time data regarding environmental, component, and/or other electronic equipment conditions for those components/equipment disposed within the vault.
Abstract:
A wireless sensor communication system for an enclosure includes a communication gateway and communication nodes within the enclosure. Each communication node includes a processor, a sensor, and a communication module. Each of the communication nodes is configured to wirelessly transmit information within the enclosure to another one of the communication nodes, and at least one of the communication nodes has an obstruction with the communication gateway impeding direct wireless communication with it. The communication nodes are configured to aggregate information received from obstructed communication nodes and wirelessly transmit the aggregated information. The aggregation of information for transmission provides for hopping communication to send sensor data or other information from the obstructed communication nodes to the communication gateway via other communication nodes.
Abstract:
A data communication system comprises a transceiver including an antenna and global positioning system (GPS) circuitry, disposed in a support structure adjacent to and supporting an entrance port to an underground enclosure. The transceiver includes a housing, where the housing is flush mountable in the support structure, wherein the transceiver is configured to communicate with a network outside of the underground enclosure. The data communication system also includes a sensor disposed in the enclosure that provides data related to a real-time condition within the underground enclosure. The data communication system also includes a sensor analytics unit to process the data from the sensor and generate a processed data signal and to communicate the processed data signal to the transceiver.
Abstract:
A holder for a current sensor having separable portions with inner surfaces forming an opening and opposing outer surfaces having a groove to accommodate a current sensing coil. The holder includes flexible members on the portions and extending toward the opening such that the flexible members can hold a power cable substantially centered within the opening and concentric with the current sensing coil. The portions are joined together with a hinge pivotally mounted between them at one end and a releasable clasp joining them together at another end, providing for ease of installation around the power cable by hand and without requiring tools or additional fasteners.
Abstract:
A data communication system, comprises a housing mountable to an enclosure, the housing including a transceiver configured to communicate with a network outside of the enclosure, a monitoring device attachable to the housing that provides data related to a real-time condition within the enclosure, control electronics to control sensor data communication via the transceiver, and a power source to power the transceiver on an at least intermittent basis.
Abstract:
A data communication apparatus, system, and method are described. The data communication system comprises a transceiver disposed on an entrance port to an enclosure, such as an underground enclosure. The transceiver includes a housing, the housing mountable to the entrance port, wherein the transceiver is configured to communicate with a network outside of the underground enclosure. The data communication system also includes a monitoring device disposed in the underground enclosure that provides data related to a real-time condition within the underground enclosure. The data communication system also includes a sensor analytics unit to process the data from the monitoring device/sensor and generate a processed data signal and to communicate the processed data signal to the transceiver.
Abstract:
A mounting structure for protecting a transceiver located on an underside of a manhole cover is formed from a metal or rugged plastic in the shape of a truncated dome or cone with a sloping sidewall and a cavity configured to receive a transceiver, wherein the mounting structure is mountable to an underside of the manhole cover. A data communication system for an enclosure comprises a transceiver configured to communicate with a network outside of the enclosure and a mounting structure to mount the transceiver to an underside of the manhole cover. The mounting structure is configured to protect the transceiver from damage during removal of the manhole cover from the entrance port of the enclosure.
Abstract:
A data communication apparatus, system, and method are described. The data communication system comprises a transceiver disposed on an entrance port to an enclosure, such as an underground enclosure. The transceiver includes a housing, the housing mountable to the entrance port, wherein the transceiver is configured to communicate with a network outside of the underground enclosure. The data communication system also includes a monitoring device disposed in the underground enclosure that provides data related to a real-time condition within the underground enclosure. The data communication system also includes a sensor analytics unit to process the data from the monitoring device/sensor and generate a processed data signal and to communicate the processed data signal to the transceiver.