Silverback Advanced Motor Monitoring, LLC

Exacter, Inc.

Aep Emtech LLP

Other

American Electric Power Company, Inc.

Aep Entech LLC

Raymond M Hayes

Mark Wayland Vinson

Ali Nourai

David A Klinect

John H Provanzana

Jason McCullough

Thomas L Kirkpatrick

Timothy C Shuter

John L Lauletta

Harry T Vollkommer, Jr

Don K Killingsworth

A system obtains respective measurements of relevant electrical parameters of a motor during operational stages including a start-up stage, a transition stage, a steady-state stage, idle stage, or a shutdown stage of the motor driven system driven by the motor. Based on the respective measurements, the monitoring system then determines respective electrical patterns corresponding to the operational stages. Next, the monitoring system compares the respective electrical patterns corresponding to the operational stages with respective baseline electrical patterns modeled for the operational stages to yield a comparison. Then, the monitoring system determines a status of the motor driven system based on a comparison between baseline and observed operating parameters. Trend pattern monitoring is used to eliminate storing massive volumes of trend data by capturing and characterizing the important moments when data values change in a significant manner.

System and method for monitoring an electrical pattern and pattern trends in electrically driven systems

Systems, methods, and computer-readable storage media for monitoring electrical patterns of a motor-driven system. The system first obtains respective measurements of relevant electrical parameters of a motor during operational stages including a start-up stage, a transition stage, a steady-state stage, idle stage, or a shutdown stage of the motor driven system driven by the motor. Based on the respective measurements, the monitoring system then determines respective electrical patterns corresponding to the operational stages. Next, the monitoring system compares the respective electrical patterns corresponding to the operational stages with respective baseline electrical patterns modeled for the operational stages to yield a comparison. Then, the monitoring system determines a status of the motor driven system based on a comparison between baseline and observed operating parameters.

Electrical pattern monitor

A hand-held system and method for detecting impaired electric power equipment. An exemplary embodiment may receive electromagnetic radiation and process the resulting signal. For example, signal processing may be used to identify electromagnetic radiation having a particular pattern that is characteristic of electric power equipment. Furthermore, an embodiment may determine the time and/or location during testing. As a result, an exemplary embodiment may be useful for stationary and/or mobile testing of an electrical system.

Hand-held system and method for detecting impaired electric power equipment

A system and method for detecting impaired electric power equipment. An exemplary embodiment may receive electromagnetic radiation and process the resulting signal. For example, signal processing may be used to identify electromagnetic radiation having a particular pattern that is characteristic of electric power equipment. Furthermore, an embodiment may determine the time and/or location during testing. As a result, an exemplary embodiment may be useful for stationary and/or mobile testing of an electrical system.

System and method for detecting impaired electric power equipment

The present invention is directed to a system and method for detecting impaired electric power equipment. An exemplary embodiment of the present invention may receive electromagnetic radiation and process the resulting signal. For example, signal processing may be used to identify electromagnetic radiation having a particular pattern that is characteristic of electric power equipment. Furthermore, an embodiment of the present invention may determine the time and/or location during testing. As a result, the present invention may be useful for stationary and/or mobile testing of an electrical system.

A system and method for creating capacitor-based electrical energy storage modules and electrical energy storage systems assembled therefrom. Submodules having a plurality of capacitors capable of storing electrical energy are used in different combinations to create electrical energy storage modules. Preferably, a number of submodules are placed into an enclosure or cabinet, whereafter the submodules are placed in electrical communication. The number of submodules installed in an enclosure is determined by the power output desired, and the space constraints of the area in which the enclosure will be located. One enclosure of one or more submodules, or a plurality of interconnected enclosures of one or more submodules, may form an electrical energy storage module. The module may be designed to output either DC or AC electric power, and may be equipped with a power conversion system and/or communication and control electronics to control the charging and discharging thereof.

System and method of forming capacitor-based electrical energy storage modules

A mechanical ice-shedding device for temporary or permanent attachment to a suspended cable, and particularly to a suspended power line. The ice-shedding device uses a motor to move at least one unbalanced weight, thereby causing a vibration of the device that is translated to the cable to which the device is attached. The vibration causes an oscillation of the cable which is sufficient to substantially shed ice that has accumulated thereon. The output of the motor is preferably regulated so that the cable may be ramped through several frequencies of oscillation, thereby improving its ice-shedding ability. The device may be driven by power from the power line to which it is attached, or from another source, such as a battery or storage capacitor.

Power line ice-shedder

A system and method for creating capacitor-based electrical energy storage modules and electrical energy storage systems assembled therefrom. Submodules having a plurality of capacitors capable of storing electrical energy are used in different combinations to create electrical energy storage modules. Preferably, a number of submodules are placed into corresponding receptacles within an enclosure or cabinet, wherein the submodules become electrically connected. The number of submodules installed in a cabinet is determined by the power output desired, and the space constraints of the area in which the cabinet will be located. One cabinet of one or more submodules, or a plurality of interconnected cabinets of one or more submodules, may form an electrical energy storage module. The module may be designed to output either DC or AC electric power, and is preferably equipped with a power conversion system and/or communication and control electronics to control the charging and discharging thereof. A plurality of capacitor-based electrical energy storage modules may be connected to form an electrical energy storage system of greater storage capacity.

Current and voltage waveforms on the branches of each node of a power distribution network are sampled. The samples are converted to digital signals which are resolved into spectral components and processed to obtain the power (KVA) phasor at each frequency (harmonic component) of interest. The phase angles of the phasors describe the directions of movement, and thereby the locations of the sources, of the power harmonics in the network. A summary report is generated.

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Lancaster, OH, United States of America

Raymond M Hayes