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  5. Development of Approximate Entropy as a Prognostic Parameter for Rotating Equipment
Details

Development of Approximate Entropy as a Prognostic Parameter for Rotating Equipment

Date Issued
May 1, 2020
Author(s)
Walker, Cody McBroom
Advisor(s)
Jamie Coble
Additional Advisor(s)
J. Wesley Hines
Richard Wood
David Irick
Permanent URI
https://trace.tennessee.edu/handle/20.500.14382/27150
Abstract

Bearings are an essential component throughout most rotating equipment and power-generating systems. Current maintenance practices allow for premature replacement of bearings in a scheduled fashion. By moving to a condition-based maintenance strategy, the health of the component is assessed and used to determine the remaining useful life. This can improve plant safety and efficiency. My research focuses on vibration analysis and developing approximate entropy - a statistic that quantifies a signal's regularity and complexity - as a health indicator for bearings. Preliminary results show that this statistic has earlier fault detection and better trendability than other commonly-used features.

Subjects

Fault detection

bearings

prognostics

approximate entropy

rotating machinery

diagnostics

Degree
Doctor of Philosophy
Major
Nuclear Engineering
Embargo Date
May 15, 2023
File(s)
Thumbnail Image
Name

utk.ir.td_13586.pdf

Size

16.42 MB

Format

Adobe PDF

Checksum (MD5)

fbd007018d007dc314e7dd3ca580de1b


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