Abstract

With the modernization of power grids, the network optimal utilization is essential to ensure that voltage profile at each bus is maintained within an acceptable range, voltage stability of the system is enhanced, power losses in lines are minimized, reliability and security of system are improved and etc. These can be achieved by introducing reactive power compensation devices such as Flexible Alternating Current Transmission System (FACTS) devices, Custom Power (CP) devices, synchronous condenser, capacitor bank and etc in distribution or transmission networks. Optimal location and sizing of the reactive power compensation devices are significantly important to ensure sufficient investment onto this device. Recently, most of conducted studies had focused on the techniques for determining the optimal location and sizing of various reactive power compensation devices in the power system using various indices proposed in the literature to access the power loss, voltage stability, voltage profile and line loadability. However, no review paper had discussed on the application of the existing indices adopted in the available techniques for solving the optimal location and sizing problems for all types of reactive power compensation devices. In this paper, current literature survey on optimal location and sizing of reactive power compensations had been discussed which includes analytical, conventional, metaheuristic and hybrid based approaches. The main objectives are to reduce power losses, to mitigate voltage deviations, to increase voltage stability and to improve reliability and security of the system.

Highlights

  • The role of the grid has been evolving day by day towards more decentralized by maximizing the distributed energy resources with an advanced automatic control and communication techniques which is known as smart grid system

  • Various techniques for solving optimal location and sizing of Reactive Power Compensation (RPC) had been proposed in literature that can be categorized into four groups; (i) analytical approaches, (ii) conventional optimization based approaches, (iii) metaheuristic optimization approaches and, (iv) hybrid approaches as shown in Fig. 2 [6, 12, 40,41]

  • This work presents a comprehensive review on optimal location and sizing of RPC using hybrid-based approaches for power loss reduction, voltage stability improvement, voltage profile enhancement and loadability enhancement

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Summary

INTRODUCTION

The role of the grid has been evolving day by day towards more decentralized by maximizing the distributed energy resources with an advanced automatic control and communication techniques which is known as smart grid system. The power system problems such as voltage profile issues, voltage instabilities, excessive power losses, heavily loaded lines, reliability problems, power quality and etc must be mitigated to enable a high performance infrastructure in the smart grid system [2 – 4] These problems can be obviated by introducing the Reactive Power Compensation (RPC) in transmission and distribution system. Throughout all the review works available in literature, there are no specific work that focused on the application of the existing indices adopted in available techniques for solving the optimal location and sizing RPCs. this paper presents a comprehensive review on various available indices which are adopted in optimal location and sizing techniques; analytical, conventional, metaheuristic and hybrid-based approaches for power loss reduction, voltage stability improvement, voltage profile enhancement and loadability enhancement

REACTIVE POWER COMPENSATION TECHNOLOGIES
OPTIMAL LOCATION AND SIZING TECHNIQUES RP
ANALYTICAL APPROACH
Qj X ij
NOTEWORTHY CONTRIBUTION
VIII. KEY FINDINGS AND RECOMMENDATIONS FOR FUTURE WORKS
Findings
CONCLUSION
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