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access icon free Non-communication protection scheme for power transmission system based on transient currents, HHT and SVM

  • Author(s): Zhenwei Guo 1 ; Shengjie Yang 2 ; WenXin Yu 3 ; Lieping Zhang 1 ; Zhixian Zhong 1 ; YongBo Sui 4
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  • Source: Volume 12, Issue 12, 10 July 2018, p. 2816 – 2824
    DOI:  10.1049/iet-gtd.2017.0862 , Print ISSN 1751-8687, Online ISSN 1751-8695
© The Institution of Engineering and Technology
Received 10/06/2017, Accepted 15/11/2017, Revised 18/10/2017, Published 17/11/2017

How to improve the reliability has been a challenging task for transient protection, which has been affected seriously by the fault initial angle (FIA) and transient resistance (TR). Based on support vector machine (SVM), a novel smart transient protection method is presented in this study, which protects a bus and two transmission lines connected to the bus. The method is based on the measurements from the two close-in ends of the two lines. Hilbert–Huang transform is used to extracting instantaneous amplitude from the measured currents. The fault area is determined from the two instantaneous amplitude-integral (IA) of the transient fault currents, the difference of the two IAs, FIA, and the TR. SVM is utilised to determine the fault area. Two IAIs, difference of IAs, FIA and TR are treated as the input to SVMs. Faults with different FIA and TR are treated as a different class of fault, respectively. Correspondingly, a different criterion of discrimination is automatically employed by SVMs for a different fault class. The influence of FIA and TR is eliminated significantly, and the reliability of protection is enhanced substantially. The performance of the method is tested using ATP/EMTP with satisfactory results.

Inspec keywords: Hilbert transforms; support vector machines; power transmission protection; power transmission lines; fault currents; power transmission reliability; power system transients; power engineering computing

Other keywords: support vector machine; TR; ATP-EMTP; IA; instantaneous amplitude integral; fault initial angle; Hilbert-Huang transform; transmission line; bus; noncommunication protection scheme; transient fault current; SVM; smart transient protection method; HHT; FIA; reliability; instantaneous amplitude extraction; transient resistance; power transmission system; transient protection

Subjects: Power engineering computing; Power system protection; Integral transforms; Reliability; Integral transforms; Knowledge engineering techniques; Power transmission, distribution and supply

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