Influence of an inverter based DG on a double-ended fault location scheme

This paper describes the influence of Distributed Generation (DG) on a double ended fault location based on measuring the high frequency fault transients. The additional non-fundamental frequency current components from DG will influence the accuracy of an impedance based fault location technique ba...

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Main Authors: Jahangar, Hayder, Thomas, David W.P., Sumner, M., Rose, Christopher James
Format: Conference or Workshop Item
Language:English
Published: 2018
Subjects:
Online Access:https://eprints.nottingham.ac.uk/49280/
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author Jahangar, Hayder
Thomas, David W.P.
Sumner, M.
Rose, Christopher James
author_facet Jahangar, Hayder
Thomas, David W.P.
Sumner, M.
Rose, Christopher James
author_sort Jahangar, Hayder
building Nottingham Research Data Repository
collection Online Access
description This paper describes the influence of Distributed Generation (DG) on a double ended fault location based on measuring the high frequency fault transients. The additional non-fundamental frequency current components from DG will influence the accuracy of an impedance based fault location technique based on non-fundamental frequencies. A double-ended impedance based fault location technique that utilizes the high frequency content (up to 5 kHz) is studied. The study showed that double-ended method is still able to locate a fault with a maximum error of 4% compared to the case without DG which showed a percentage error up to 2%.
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institution University of Nottingham Malaysia Campus
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publishDate 2018
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spelling nottingham-492802020-05-08T12:00:32Z https://eprints.nottingham.ac.uk/49280/ Influence of an inverter based DG on a double-ended fault location scheme Jahangar, Hayder Thomas, David W.P. Sumner, M. Rose, Christopher James This paper describes the influence of Distributed Generation (DG) on a double ended fault location based on measuring the high frequency fault transients. The additional non-fundamental frequency current components from DG will influence the accuracy of an impedance based fault location technique based on non-fundamental frequencies. A double-ended impedance based fault location technique that utilizes the high frequency content (up to 5 kHz) is studied. The study showed that double-ended method is still able to locate a fault with a maximum error of 4% compared to the case without DG which showed a percentage error up to 2%. 2018-03-12 Conference or Workshop Item PeerReviewed application/pdf en https://eprints.nottingham.ac.uk/49280/1/INFLUENCE%20OF%20AN%20INVERTER%20BASED%20DG%20ON%20A%20DOUBLE-ENDED%20FAULT%20LOCATION%20SCHEME.pdf Jahangar, Hayder, Thomas, David W.P., Sumner, M. and Rose, Christopher James (2018) Influence of an inverter based DG on a double-ended fault location scheme. In: The 14th International Conference on Developments in Power System Protection, 12-15 Mar 2018, Belfast, UK. (In Press) DG Double-ended Fault High frequency Microgrid.
spellingShingle DG
Double-ended
Fault
High frequency
Microgrid.
Jahangar, Hayder
Thomas, David W.P.
Sumner, M.
Rose, Christopher James
Influence of an inverter based DG on a double-ended fault location scheme
title Influence of an inverter based DG on a double-ended fault location scheme
title_full Influence of an inverter based DG on a double-ended fault location scheme
title_fullStr Influence of an inverter based DG on a double-ended fault location scheme
title_full_unstemmed Influence of an inverter based DG on a double-ended fault location scheme
title_short Influence of an inverter based DG on a double-ended fault location scheme
title_sort influence of an inverter based dg on a double-ended fault location scheme
topic DG
Double-ended
Fault
High frequency
Microgrid.
url https://eprints.nottingham.ac.uk/49280/