Open Access Open Access  Restricted Access Subscription Access

Power Stabilization of HVDC Transmission Line Using Facts VSC Technique

Manjeet Saurabh, Bhoopendra Singh

Abstract


The benefit of parallel air conditioning dc control transmission for the improvement of transient and dynamic solidness and clammy out motions have been set up. Present paper proposes a synchronous air conditioning dc power stream plot through a similar transmission line to get the benefits of parallel air conditioning dc transmission to improve security and damping motions just as to control the voltage profile of the line by controlling the complete responsive power stream. Just the essential thought is proposed alongside the plausibility study utilizing rudimentary research center model. The principle item is to underline the likelihood of synchronous air conditioning dc transmission with its inborn preferred position of intensity stream control. Control strategies dependent on particular consonant disposal beat width regulation (PWM) methods with energy unit framework offer the least conceivable number of exchanging advances and improve the voltage level in SAF transmission framework. This element likewise brings about the most reduced conceivable degree of converter exchanging misfortunes. Therefore, they are appealing systems for the voltage-source-converter-(VSC) based high-voltage dc (HVDC) control transmission systems.

 

Keywords: Transmission system, transient stability, high voltage direct current, reactive power, damping oscillation, pulse width modulation, voltage source inverter


Full Text:

PDF

References


Babu P.V.K., Prasad P.B., Lalitha M.P. Power Upgrading of Transmission Line by Combining AC–DC Transmission. Int. J. Of Engineering Research and Applications. Vol. 2, No. 6, 1699-1704p, Dec.2012.

Haro P.Z., Ramirez J.M. Multi-pulse Switching Functions Modeling of Flexible AC Transmission Systems Devices. Electric Power Components and Systems. Vol 37, No 1, 20-42p, January 2009.

Cleric A., Paris L., Danfors P. SAF conversion of HVAC line to provide substantial power upgrading. IEEE Transaction on Power Delivery. Vol 6 No 1, 324-333p, 1991.

Clerici A., Valtorta G., Paris L. AC and/or DC substantial power upgrading of Existing OHTL Corridors. AC DC Conference, London. 220-225p, 1991.

Brierley R.H. et al. Compact Right of Ways with multi-Voltage Towers. IEEE Transaction on Power Delivery. Vol 6 No 4, 1682-1689p, October 1991.

Rahman H., Khan B.H. Stability Improvement of Power System by Simultaneous AC-DC Power Transmission. Electric Power System Research Journal, Elsevier, Paper Editorial ID No. EPSRD-06-00732, Press Article No. EPSR-2560—Digital Object Identifier, doi: 10.1016/j.epsr.2007.05.020.

Flourentzou N., Agelidis V.G., Demetriades G.D. VSC-based SAF power transmission systems: An overview. IEEE Trans. Power Electron. Vol 24, No 3, 592-602p, Mar 2009.

Rahman H., Khan B.H. Possibility of Power Tapping from Composite AC-DC Power Transmission Lines. IEEE Transaction on Power Delivery. Vol 23, 1464-1471p, July 2008.

Kundur P.S. Power system stability and control. New York: McGraw-Hill Inc. 1994.

PSCAD/EMTDC. User’s Guide, Manitoba SAF Research.

Hingorani N.G. FACTS—flexible A.C. transmission system. In Proc. Inst. Elect. Eng. 5th. Int. Conf. A.C. D.C. Power Transmission.


Refbacks

  • There are currently no refbacks.