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Monitoring degradation in the field

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSN › Chapter (peer-reviewed) › peer-review

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Monitoring degradation in the field. / Swingler, Jonathan; Jones, Jeff; Bryant, Michael D. et al.
The physics of degradation in engineered materials and devices: fundamentals and principles. ed. / Jonathan Swingler. Momentum Press , 2014. p. 117-151.

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSN › Chapter (peer-reviewed) › peer-review

Harvard

Swingler, J, Jones, J, Bryant, MD, Feinberg, A, Ma, X & Weaver, PM 2014, Monitoring degradation in the field. in J Swingler (ed.), The physics of degradation in engineered materials and devices: fundamentals and principles. Momentum Press , pp. 117-151. https://doi.org/10.5643/9781606504673/ch5

APA

Swingler, J., Jones, J., Bryant, M. D., Feinberg, A., Ma, X., & Weaver, P. M. (2014). Monitoring degradation in the field. In J. Swingler (Ed.), The physics of degradation in engineered materials and devices: fundamentals and principles (pp. 117-151). Momentum Press . https://doi.org/10.5643/9781606504673/ch5

Vancouver

Swingler J, Jones J, Bryant MD, Feinberg A, Ma X, Weaver PM. Monitoring degradation in the field. In Swingler J, editor, The physics of degradation in engineered materials and devices: fundamentals and principles. Momentum Press . 2014. p. 117-151 doi: 10.5643/9781606504673/ch5

Author

Swingler, Jonathan ; Jones, Jeff ; Bryant, Michael D. et al. / Monitoring degradation in the field. The physics of degradation in engineered materials and devices: fundamentals and principles. editor / Jonathan Swingler. Momentum Press , 2014. pp. 117-151

Bibtex

@inbook{614ee2c333aa4f3ead7adefeb6ce6576,
title = "Monitoring degradation in the field",
abstract = "Chapter 5 by Ma reviews measurement and monitoring technologies for electrical power systems concentrating on characterization of metallic material, condition monitoring of insulation and condition monitoring of associated assets. The chapter focuses on insulation degradation and its measurement and discusses the thermal, mechanical, and electrical stresses that lead to degradation. Defect formation is highlighted, which can lead to partial discharges in operation. It is the interaction of thermal, mechanical, and electrical stresses on defects that increases the probability of partial dis¬charge activity and eventual failure of the system. Thus, Ma makes the case that it is imperative that partial discharge in such systems is detected at an early stage for a quick remedy. Ma extensively discusses the different approaches to partial discharge detection and measurement. A particularly helpful section is on noise issues and denoising of measurements. Partial discharge measurements can often be immersed and lost by electrical noise and require noise reduction techniques that fall into two categories: 1.Specialist hardware—purpose-built circuits, and 2.Specialist software—purpose-built signal processing techniques. A selection of these circuits and techniques is discussed in detail. An example using a wavelet-based technique is presented and proves to be impressive.",
keywords = "Ageing, Degradation, Electrical power systems, Entropy, Ferroelectric devices, Thermodynamics",
author = "Jonathan Swingler and Jeff Jones and Bryant, {Michael D.} and Alec Feinberg and Xiandong Ma and Weaver, {Paul M.}",
year = "2014",
month = dec,
day = "30",
doi = "10.5643/9781606504673/ch5",
language = "English",
isbn = "9781606504673",
pages = "117--151",
editor = "Swingler, {Jonathan }",
booktitle = "The physics of degradation in engineered materials and devices",
publisher = "Momentum Press ",

}

RIS

TY - CHAP

T1 - Monitoring degradation in the field

AU - Swingler, Jonathan

AU - Jones, Jeff

AU - Bryant, Michael D.

AU - Feinberg, Alec

AU - Ma, Xiandong

AU - Weaver, Paul M.

PY - 2014/12/30

Y1 - 2014/12/30

N2 - Chapter 5 by Ma reviews measurement and monitoring technologies for electrical power systems concentrating on characterization of metallic material, condition monitoring of insulation and condition monitoring of associated assets. The chapter focuses on insulation degradation and its measurement and discusses the thermal, mechanical, and electrical stresses that lead to degradation. Defect formation is highlighted, which can lead to partial discharges in operation. It is the interaction of thermal, mechanical, and electrical stresses on defects that increases the probability of partial dis¬charge activity and eventual failure of the system. Thus, Ma makes the case that it is imperative that partial discharge in such systems is detected at an early stage for a quick remedy. Ma extensively discusses the different approaches to partial discharge detection and measurement. A particularly helpful section is on noise issues and denoising of measurements. Partial discharge measurements can often be immersed and lost by electrical noise and require noise reduction techniques that fall into two categories: 1.Specialist hardware—purpose-built circuits, and 2.Specialist software—purpose-built signal processing techniques. A selection of these circuits and techniques is discussed in detail. An example using a wavelet-based technique is presented and proves to be impressive.

AB - Chapter 5 by Ma reviews measurement and monitoring technologies for electrical power systems concentrating on characterization of metallic material, condition monitoring of insulation and condition monitoring of associated assets. The chapter focuses on insulation degradation and its measurement and discusses the thermal, mechanical, and electrical stresses that lead to degradation. Defect formation is highlighted, which can lead to partial discharges in operation. It is the interaction of thermal, mechanical, and electrical stresses on defects that increases the probability of partial dis¬charge activity and eventual failure of the system. Thus, Ma makes the case that it is imperative that partial discharge in such systems is detected at an early stage for a quick remedy. Ma extensively discusses the different approaches to partial discharge detection and measurement. A particularly helpful section is on noise issues and denoising of measurements. Partial discharge measurements can often be immersed and lost by electrical noise and require noise reduction techniques that fall into two categories: 1.Specialist hardware—purpose-built circuits, and 2.Specialist software—purpose-built signal processing techniques. A selection of these circuits and techniques is discussed in detail. An example using a wavelet-based technique is presented and proves to be impressive.

KW - Ageing

KW - Degradation

KW - Electrical power systems

KW - Entropy

KW - Ferroelectric devices

KW - Thermodynamics

U2 - 10.5643/9781606504673/ch5

DO - 10.5643/9781606504673/ch5

M3 - Chapter (peer-reviewed)

SN - 9781606504673

SP - 117

EP - 151

BT - The physics of degradation in engineered materials and devices

A2 - Swingler, Jonathan

PB - Momentum Press

ER -