Cargando…

A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement

Currently, in the modern power industry, it is still a great challenge to achieve high sensitivity and uninterrupted-online measurement of large current on the high voltage gridlines. At present, the fiber grating current sensors based on giant magnetostrictive material used in the modern power indu...

Descripción completa

Detalles Bibliográficos
Autores principales: Wang, Shuchao, Wan, Fu, Zhao, Hong, Chen, Weigen, Zhang, Weichao, Zhou, Quan
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6514743/
https://www.ncbi.nlm.nih.gov/pubmed/31013759
http://dx.doi.org/10.3390/s19081755
_version_ 1783417931751751680
author Wang, Shuchao
Wan, Fu
Zhao, Hong
Chen, Weigen
Zhang, Weichao
Zhou, Quan
author_facet Wang, Shuchao
Wan, Fu
Zhao, Hong
Chen, Weigen
Zhang, Weichao
Zhou, Quan
author_sort Wang, Shuchao
collection PubMed
description Currently, in the modern power industry, it is still a great challenge to achieve high sensitivity and uninterrupted-online measurement of large current on the high voltage gridlines. At present, the fiber grating current sensors based on giant magnetostrictive material used in the modern power industry to achieve uninterrupted-online measurement of large currents on high voltage grid lines is a better method, but the sensitivity of this current sensor is relatively low, therefore, it is key to improve the sensitivity of this current sensor. Here we show a sensitivity-enhanced fiber grating current sensor based on giant magnetostrictive material (in the following, simply referred to as the sensitivity-enhanced fiber grating current sensor) that is able to achieve high sensitivity and uninterrupted-online measurement of large currents by means of pressurizing the giant magnetostrictive material. Sampling the power frequency sinusoidal alternating current signals with the amplitudes of 107, 157 and 262 A respectively, based on realistic factors, for the sensitivity-enhanced current sensor, the sensitivities, compared with that of the traditional fiber grating current sensor based on giant magnetostrictive material (in the following, simply referred to as the traditional fiber grating current sensor), were respectively enhanced by 268.96%, 135.72% and 71.57%. Thus the sensitivity-enhanced fiber grating current sensor allows us to solve the issue of high sensitivity and uninterrupted-online measurement of large currents that have been plaguing the power industry in a very simple and low-cost way.
format Online
Article
Text
id pubmed-6514743
institution National Center for Biotechnology Information
language English
publishDate 2019
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-65147432019-05-30 A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement Wang, Shuchao Wan, Fu Zhao, Hong Chen, Weigen Zhang, Weichao Zhou, Quan Sensors (Basel) Article Currently, in the modern power industry, it is still a great challenge to achieve high sensitivity and uninterrupted-online measurement of large current on the high voltage gridlines. At present, the fiber grating current sensors based on giant magnetostrictive material used in the modern power industry to achieve uninterrupted-online measurement of large currents on high voltage grid lines is a better method, but the sensitivity of this current sensor is relatively low, therefore, it is key to improve the sensitivity of this current sensor. Here we show a sensitivity-enhanced fiber grating current sensor based on giant magnetostrictive material (in the following, simply referred to as the sensitivity-enhanced fiber grating current sensor) that is able to achieve high sensitivity and uninterrupted-online measurement of large currents by means of pressurizing the giant magnetostrictive material. Sampling the power frequency sinusoidal alternating current signals with the amplitudes of 107, 157 and 262 A respectively, based on realistic factors, for the sensitivity-enhanced current sensor, the sensitivities, compared with that of the traditional fiber grating current sensor based on giant magnetostrictive material (in the following, simply referred to as the traditional fiber grating current sensor), were respectively enhanced by 268.96%, 135.72% and 71.57%. Thus the sensitivity-enhanced fiber grating current sensor allows us to solve the issue of high sensitivity and uninterrupted-online measurement of large currents that have been plaguing the power industry in a very simple and low-cost way. MDPI 2019-04-12 /pmc/articles/PMC6514743/ /pubmed/31013759 http://dx.doi.org/10.3390/s19081755 Text en © 2019 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Wang, Shuchao
Wan, Fu
Zhao, Hong
Chen, Weigen
Zhang, Weichao
Zhou, Quan
A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title_full A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title_fullStr A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title_full_unstemmed A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title_short A Sensitivity-enhanced Fiber Grating Current Sensor Based on Giant Magnetostrictive Material for Large-Current Measurement
title_sort sensitivity-enhanced fiber grating current sensor based on giant magnetostrictive material for large-current measurement
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6514743/
https://www.ncbi.nlm.nih.gov/pubmed/31013759
http://dx.doi.org/10.3390/s19081755
work_keys_str_mv AT wangshuchao asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT wanfu asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhaohong asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT chenweigen asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhangweichao asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhouquan asensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT wangshuchao sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT wanfu sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhaohong sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT chenweigen sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhangweichao sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement
AT zhouquan sensitivityenhancedfibergratingcurrentsensorbasedongiantmagnetostrictivematerialforlargecurrentmeasurement