Flexible AC transmission using thyristor switched reactor

Summary   The main theme of this project is to make the power distribution system more effective by the means of flexibility in the transmission line. The purposed idea helps to enhance the power quality using ?TSR? in case of no load or the low load on the receiving end the volta

Project Title

Flexible AC transmission using thyristor switched reactor

Project Area of Specialization

Electrical/Electronic Engineering

Project Summary

Summary

The main theme of this project is to make the power distribution system more effective by the means of flexibility in the transmission line. The purposed idea helps to enhance the power quality using “TSR” in case of no load or the low load on the receiving end the voltage increases due to the capacitance in the transmission line due to this the electrical equipment’s can be easily damaged to overcome this problem this purposed idea help to make the flexibility in the power transmission line.

Project Objectives

Introduction

 There are many methods which are normally used for the flexible ac transmission including the TSR,SVC,SCR and others the main methodology behind all these techniques is to improve the power quality of the any electrical system.

In case of TSR we noticed that in case of the low load on the receiving end there is a massive increase in the voltage level due to this there are chances of the breakdown of the electrical system and the appliance. The purposed ideas make the intelligent system which adds the Reactors in parallel manners with the transmission lines in case of high voltage on the receiving end. The power quality of the system is also increased due to this system and the chances of electrical failure will be low.

Project Implementation Method

[1] N. G. Hingorani, Proceedings of the IEEE 76(4), 481 (1988).

[2] L. Gyugyi, IEE Proceedings C, Generation, Transmission and Distribution 139(4), 323 (1992).

[3] N. G. Hingorani, IEEE Spectrum 30(4), 40 (1993).

[4] N. G. Hingorani, L. Gyugyi, Understanding FACTS: Concepts and Technology of Flexible AC Transmission Systems, IEEE, New York, 2000.

[5] Y.-H. Song, T. A. Johns, Flexible AC Transmission Systems (FACTS), IEE, London, 2000.

[6] S. Zelingher, B. Fardanesh, B. Shperling, S. Dave, L. Kovalsky, C. Schauder, A. Edris, Proc. Of IEEE PES Winter Meeting, 2511 (2000).

[7] S. N. Singh, International Journal of Energy Technology and Policy 4(3-4), 236 (2006).

[8] L. Gyugyi, IEEE Transactions on Power Delivery 9(2), 904 (1994).

[9] L. Gyugyi, N. G. Hingorani, P. R. Nannery, N. Tai, CIGRE Paper 23-203, Paris (1990).

[10] K. R. Padiyar, A. M. Kulkarni, Sãdhanã 22(6), 781 (1997).

[11]L. Gyugyi, IEEE Transactions on Industry Applications 15(5), 521 (1979).

[12]L. Gyugyi, Proceedings of the IEEE 76(4), 483 (1988).

[13] T. J. E. Miller, Reactive Power Control in Electric Systems, Wiley, New York, 1982.

[14] S. Jalali, I. Dobson, R. H. Lasseter, G. Venkataramanan, IEEE Transactions on Circuits and Systems-I: Fundamental Theory and Applications

43(3), 209 (1996).

[15] A.-A. Edris, R. Adapa, M. H. Baker, L. Bohmann, K. Clark, K. Habashi, L. Gyugyi, J. Lemay,A. S. Mehraban, A. K. Myers, J. Reeve, F. Sener,

D. R. Torgerson, R. R. Wood, IEEE Transactions on Power Delivery 12(4), 1848 (1997).

[16] A. Rubaai, A. R. Ofoli, D. Cobbinah, M. D. Kankam, IEEE Transactions on Industry Applications 41(6), 1539 (2005).

[17]L. Gyugyi, C. D. Schauder, K. K. Sen, IEEE Transactions on Power Delivery 12(1), 406 (1997).

[18] N. Christl, R. Hedin, K. Sadek, P. Lutzelherger, P. E. Krause, S. M. McKenna, A. H. Montoya, D. Torgerson, CIGRE Paper 14/37/38-05, Paris

(1992).

[19] A. J. F. Kari, R. A. Byron, B. J. War, A. S. Mehraban, M. Chamia, P. Halvarsson, L. Angquist, CIGRE Paper 14/37/38-07, Paris (1992).

[20] S. Nyatti, M. E. Eitzmann, J. Kappenman, D. Van House, N. Mohan, A. Edris, IEEE Transactions on Power Delivery 10(4), 2013 (1995).

[21] B. Ardanesh, B. Shperling, E. Uzunovic, S. Zelingher, Proc. of IEEE PES Summer Meeting, 1020 (2000).

[22] X.-P. Zhang, E. Handschin, M. Yao, IEEE Transactions on Power Systems 16(3), 367 (2001). 

Benefits of the Project

Literature Review / State of the Art (Relevant Work Section) 

FACTS are AC(alternating current) transmission systems that combines electric & other fixed controls to increase stabilization & maximize capabilities of transmission of power. Basically, FACTS concept is based on the real or considerable incorporation of electric power devices and procedure into the H.V(high voltage) side of network, to make it controllable electrically. 

Basically, purpose of FACTS controllers is to increase the controlling of flow of power on the H.V(high voltage side) of system during both stable and transitory states. In “1988 Dr. N. Hingorani gave the idea of FACTS i.e theory of control of absolute network ” [1]. FACTS receives due to the many economic and technical advantages it promised

Statement of the Problem

The power quality in our country is very poor due to the poor power quality the Voltage between the sending and the receiving ends are vary according to the Distance.The purposed hardware helps us to make the Flexibility in the Ac power Transmission using thyristor switched Reactor to reduce the Ferranti effect in the Transmission line to increase the Power Quality of the system.

Technical Details of Final Deliverable

Aim of Study

The main aim of this study is to make the Flexibility in the Transmission system. The Thyrister controlled Reactor is the automatic system which make the system and reduce the Ferranti Effect of the System.

1.  "Regulation of power flows according to  controlled conditions in outhorized transmission 

paths" 

2 .  "Safe activation of T.L(transmission  lines) near to max  limit of thermal process"

3 . "By contributing to emergency  control, preventing cascading outages." 

4 .  "Damping oscillations capable of threatening  protection or reducing available line power"

Aim of Study

The main aim of this study is to make the Flexibility in the Transmission system. The Thyrister controlled Reactor is the automatic system which make the system and reduce the Ferranti Effect of the System.

1.  "Regulation of power flows according to  controlled conditions in outhorized transmission 

paths" 

2 .  "Safe activation of T.L(transmission  lines) near to max  limit of thermal process"

3 . "By contributing to emergency  control, preventing cascading outages." 

4 .  "Damping oscillations capable of threatening  protection or reducing available line power"

Final Deliverable of the Project

Hardware System

Core Industry

Education

Other Industries

Core Technology

Others

Other Technologies

Artificial Intelligence(AI)

Sustainable Development Goals

Quality Education

Required Resources

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