Abstract
This paper presents a hybrid travelling wave/distance protection for HVDC transmission lines by constantly monitoring the phase angles of characteristic harmonic impedances, measured from one head of the line. Waveform analysis, using the fast Fourier transform, reveals that the behaviour of the phase angles of characteristic harmonic impedances is periodic, and based on their results, the transmission line can be divided into distinctive segments for distinguishing internal and external faults. According to these results, majority of the line length can be protected in the event of internal faults, solely by monitoring the phase angles of the input impedances of characteristic harmonics. However, there are some sections of the line (fail-to-trip regions) where the results of the phase angles of the characteristic harmonic impedances under internal faults are very similar to those under the external faults. Therefore, if an internal fault occurs in one of these regions, the proposed protection method will fail to operate. To reliably overcome this problem, wavelet analysis is adopted, which can safely detect the internal faults inside the fail-to-trip regions. It will be shown that the proposed method established based on these principles is fast and reliable, and has excellent performance in identification of the remote-end fault conditions. The validity of the proposed method is evaluated using the Hydro-Quebec HVDC benchmark model, simulated in MATLAB/SIMULINK software environment.
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References
Kim CK, Sood VK, Jang GS, Lim SJ, Lee SJ (2009) HVDC transmission: power conversion applications in power systems. Wiley, Asia
Visakh A, Shereef RM (2018) Protection of HVDC grids against temporary and permanent faults. In: 2018 international conference on control, power, communication and computing technologies (ICCPCCT), pp 239–244
Liu J, Nengling T, Fan C (2015) Protection scheme for high-voltage direct-current transmission lines based on transient AC current. IET Gener Transm Distrib 9(16):2633–2643
Li A, Cai Z, Sun Q, Li X, Ren D, Yang Z (2009) Study on the dynamic performance characteristics of HVDC control and protections for the HVDC line fault. In: Power energy society general meeting, pp1–5
Takeda H, Ayakawa H, Tsumenaga M, Sanpei M (1995) New protection method for HVDC lines including cables. IEEE Trans Power Deliv 10(4):2035–2039
Wang D, Gao HL, Zou SB (2017) Travelling wave pilot protection for LCC-HVDC transmission lines based on electronic transformers’ differential output characteristic. Int J Electr Power Energy Syst 93:283–290
Ha H, Yu Y, Yi R, Bo ZQ, Chen B (2010). Novel scheme of travelling wave differential protection for bipolar HVDV transmission lines. In: International conference on power system technology, pp1–6
Kong F, Hao Z, Zhang B (2017) Improved differential current protection scheme for CSC-HVDC transmission lines. IET Gener Transm Distrib 11(4):978–986
Lou S, Dong X, Shi S, Wang B (2016) A directional protection scheme for HVDC transmission lines based on reactive energy. IEEE Trans Power Deliv 31(2):559–567
Zou G, Huang Q, Song S, Tong b, Gao H, (2017) Novel transient-energy-based directional pilot protection method for HVDC line. Prot Control Mod Power Syst 2(15):1–10
Tom S, Thomas J (2016) HVDC transmission line protection based on transient power. Int J Electr Power Energy Syst 25:660–668
Hasheminejad S, Ghodratollah S, Razaz M, Joorabian M (2016) Ultra-high-speed protection of transmission lines using traveling wave theory. Electr Power Syst Res 132:94–103
Livani H, Yaman C (2014) A single-ended fault location method for segmented HVDC transmission line. Electr Power Syst Res 107:190–198
Pei X, Pang H, Li Y, Chen L, Ding X, Tang G (2019) A novel ultra-high-speed traveling-wave protection principle for VSC-based DC grids. IEEE Access 7:119765–119773
Misiti M, Misiti Y, Oppenheim G, Poggi JM (2009) Wavelet toolbox™ User’s Guide, 2009b ed, The MathWorks Inc, 3 Apple Hill Drive, Massachusetts
Liu X, Osman AH, Malik OP (2009) Hybrid traveling wave/boundary protection for monopolar HVDC line. IEEE Trans Power Deliv 24(2):569–578
Song G, Chu X, Gao S, Kang X, Jiao Z (2015) A new whole-line quick-action protection principle for HVDC transmission lines using one-end current. IEEE Trans Power Deliv 30(2):599–607
Zhang Y, Li Y, Song J, Li B, Chen X, Zeng L (2019) Novel protection scheme for high-voltage direct-current transmission lines based on one-terminal transient AC voltage. J Eng 6(17):4480–4485
Zhang Y, Li Y, Song J, Li B, Chen X (2019) A new protection scheme for HVDC transmission lines based on the specific frequency current of DC filter. IEEE Trans Power Deliv 34(2):420–429
Gao S, Chu X, Shen Q, Jin X, Luo J, Yun Y, Song G (2015) A novel whole-line quick-action protection principle for HVDC transmission lines using one-end voltage. Int J Electr Power Energy Syst 65:262–270
Suonan J, Hou Z, Song G, Zhang J (2011) Distance protection for HVDC transmission line based on distributed parameter model. Autom Elect Power Syst 35(8):53–57
Daisy M, Dashti R, Shaker HR (2017) A new fault-location method for HVDC transmission-line based on DC components of voltage and current under line parameter uncertainty. Electr Eng 99:573–582
Sounan J, Zhang J, Jiao Z, Yang L, Song G (2013) Distance protection for HVDC transmission lines considering frequency-dependent parameters. IEEE Trans Power Deliv 28(2):723–732
Liu J, Tai N, Fan C, Yang Y (2016) Transient measured impedance-based protection scheme for DC line faults in ultra high-voltage direct-current system. IET Gener Transm Distrib 10(14):3597–3609
(2013) SimPowerSystems™ User’s Guide. 2013a ed, Hydro-Quebec and The MathWorks Inc, 3 Apple Hill Drive, Massachusetts. pp 341–377
Cook V (1986) Fundamental aspects of fault location algorithms used in distance protection. IET Gener Transm Distrib 133(6):356–368
Hanchao L, Jian S (2013) DC terminal impedance of LLC-based HVDC converters. In: 14th IEEE workshop on control and modelling for power electronics (COMPEL), pp 1–8
Kong Y, Zhang B, Hao Z (2015) Study of ultra-high-speed protection of transmission lines using a directional comparison scheme of transient energy. IEEE Trans Power Deliv 30(2):1317–1322
Kraus JD, Carver KR (1984) Electromagnetics, 3rd edn. McGraw-Hill
Zhang C, Song G, Yang WT, L, (2019) Single-ended traveling wave fault location method in DC transmission line based on wave front information. IEEE Trans on Power Deliv 34(5):2028–2038
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Dehghan Marvasti, F., Mirzaei, A. Hybrid travelling wave/distance protection for HVDC transmission lines based on phase angles of characteristic harmonic impedances. Electr Eng 103, 2459–2472 (2021). https://doi.org/10.1007/s00202-021-01241-5
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DOI: https://doi.org/10.1007/s00202-021-01241-5