The use of a solution of the inverse heat conduction problem to monitor thermal stresses

Thick-wall components of the thermal power unit limit maximum heating and cooling rates during start-up or shut-down of the unit. A method of monitoring the thermal stresses in thick-walled components of thermal power plants is presented. The time variations of the local heat transfer coefficient on...

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Main Authors:	Taler Jan, Dzierwa Piotr, Jaremkiewicz Magdalena, Taler Dawid, Kaczmarski Karol, Trojan Marcin
Format:	Article
Language:	English
Published:	EDP Sciences 2019-01-01
Series:	E3S Web of Conferences
Online Access:	https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/34/e3sconf_ef18_01003.pdf

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spelling	doaj-2bfc9718d00240a787de64a25a2df4bc2021-02-02T07:05:46ZengEDP SciencesE3S Web of Conferences2267-12422019-01-011080100310.1051/e3sconf/201910801003e3sconf_ef18_01003The use of a solution of the inverse heat conduction problem to monitor thermal stressesTaler Jan0Dzierwa Piotr1Jaremkiewicz Magdalena2Taler Dawid3Kaczmarski Karol4Trojan Marcin5Institute of Thermal Power Engineering, Cracow University of TechnologyInstitute of Thermal Power Engineering, Cracow University of TechnologyInstitute of Thermal Power Engineering, Cracow University of TechnologyInstitute of Thermal Engineering and Air Protection, Faculty of Environmental EngineeringInstitute of Thermal Power Engineering, Cracow University of TechnologyInstitute of Thermal Power Engineering, Cracow University of TechnologyThick-wall components of the thermal power unit limit maximum heating and cooling rates during start-up or shut-down of the unit. A method of monitoring the thermal stresses in thick-walled components of thermal power plants is presented. The time variations of the local heat transfer coefficient on the inner surface of the pressure component are determined based on the measurement of the wall temperature at one or six points respectively for one- and three-dimensional unsteady temperature fields in the component. The temperature sensors are located close to the internal surface of the component. A technique for measuring the fastchanging fluid temperature was developed. Thermal stresses in pressure components with complicated shapes can be computed using FEM (Finite Element Method) based on experimentally estimated fluid temperature and heat transfer coefficienthttps://www.e3s-conferences.org/articles/e3sconf/pdf/2019/34/e3sconf_ef18_01003.pdf
collection	DOAJ
language	English
format	Article
sources	DOAJ
author	Taler Jan Dzierwa Piotr Jaremkiewicz Magdalena Taler Dawid Kaczmarski Karol Trojan Marcin
spellingShingle	Taler Jan Dzierwa Piotr Jaremkiewicz Magdalena Taler Dawid Kaczmarski Karol Trojan Marcin The use of a solution of the inverse heat conduction problem to monitor thermal stresses E3S Web of Conferences
author_facet	Taler Jan Dzierwa Piotr Jaremkiewicz Magdalena Taler Dawid Kaczmarski Karol Trojan Marcin
author_sort	Taler Jan
title	The use of a solution of the inverse heat conduction problem to monitor thermal stresses
title_short	The use of a solution of the inverse heat conduction problem to monitor thermal stresses
title_full	The use of a solution of the inverse heat conduction problem to monitor thermal stresses
title_fullStr	The use of a solution of the inverse heat conduction problem to monitor thermal stresses
title_full_unstemmed	The use of a solution of the inverse heat conduction problem to monitor thermal stresses
title_sort	use of a solution of the inverse heat conduction problem to monitor thermal stresses
publisher	EDP Sciences
series	E3S Web of Conferences
issn	2267-1242
publishDate	2019-01-01
description	Thick-wall components of the thermal power unit limit maximum heating and cooling rates during start-up or shut-down of the unit. A method of monitoring the thermal stresses in thick-walled components of thermal power plants is presented. The time variations of the local heat transfer coefficient on the inner surface of the pressure component are determined based on the measurement of the wall temperature at one or six points respectively for one- and three-dimensional unsteady temperature fields in the component. The temperature sensors are located close to the internal surface of the component. A technique for measuring the fastchanging fluid temperature was developed. Thermal stresses in pressure components with complicated shapes can be computed using FEM (Finite Element Method) based on experimentally estimated fluid temperature and heat transfer coefficient
url	https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/34/e3sconf_ef18_01003.pdf
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The use of a solution of the inverse heat conduction problem to monitor thermal stresses

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