Electronic Instrumentation Applied to the Indirect Measurement of 230 kV Overhead Transmission Lines Ampacity

Carvalho, Renatto Vaz; Ussuna, Daniel de Andrade; Filho, Vitoldo Swinka; Barrozo, Luiz Felipe Ribeiro; Bonfim, Marlio; Martins, Rafael

doi:10.1109/cpeee51686.2021.9383352

Cited by 1 publication

(1 citation statement)

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“…3-4(a), where the solid line and the lower dashed red trace were connected by through-hole points to form rectangular coil turns. However, this coil structure is not resistant to far-field electromagnetic interference [57]. Placing another Rogowski coil with opposite coil windings near the first coil is a feasible solution for attenuating radiated interference.…”

Section: Avoidance Of Electromagnetic Interferencementioning

confidence: 99%

High-Current Sensing Technology for Transparent Power Grids: A Review

Sun,

Huang,

Peng

2024

IEEE Open J. Ind. Electron. Soc.

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The global energy industry is moving towards a trend of green and low-carbon transformation. A transparent power grid represents a new development form under this energy transition trend, integrating the power grid with new generation information and communication technologies, exemplified by the internet. The use of micro smart sensors allows real-time monitoring of many important parameters of power systems via current, which is crucial for ensuring safe, stable, intelligent, and green power grid operation. Here, based on the development logic of current sensing technology for traditional-smarttransparent power grids, we focus our research on high-current sensing in a transparent power grid. First, we review the widely used traditional current sensing methods of shunts and Rogowski coils. More advanced optical fiber current sensing methods and microelectromechanical system current sensing chips are then introduced, which are more suitable for the smart sensing requirements of transparent power grids. In addition, we present and discuss the technical characteristics, research status, application scope, advantages and disadvantages, and future development directions of the above methods in detail. Finally, we address many essential challenges including miniaturization, integration, low power consumption, passive wireless sensing, long-range operation, and complex environmental parameters in the comprehensive intelligent and transparent sensing of current parameters in power grids. To address these challenges, we present three possible development directions: sensor improvement, development of communication and networking technologies for sensors, and advancement of intelligent and fast processing methods through communication.

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Section: Avoidance Of Electromagnetic Interferencementioning

confidence: 99%