Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications

Passive monitoring techniques have been used for peak temperature measurements during irradiation tests by exploiting the melting point of well-characterized materials. Recent efforts to expand the capabilities of such peak temperature detection instrumentation include the development and testing of...

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Autores principales:	Kiyo T. Fujimoto, Lance A. Hone, Kory D. Manning, Robert D. Seifert, Kurt L. Davis, James N. Milloway, Richard S. Skifton, Yaqiao Wu, Malwina Wilding, David Estrada
Formato:	article
Lenguaje:	EN
Publicado:	MDPI AG 2021
Materias:	aerosol jet printing in-pile sensors nuclear energy additive manufacturing advanced manufacturing peak temperature sensors Chemical technology TP1-1185
Acceso en línea:	https://doaj.org/article/8c9001e3a16c4bbb9ed1e432b9d3355c
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spelling	oai:doaj.org-article:8c9001e3a16c4bbb9ed1e432b9d3355c2021-11-25T18:58:30ZAdditive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications10.3390/s212276881424-8220https://doaj.org/article/8c9001e3a16c4bbb9ed1e432b9d3355c2021-11-01T00:00:00Zhttps://www.mdpi.com/1424-8220/21/22/7688https://doaj.org/toc/1424-8220Passive monitoring techniques have been used for peak temperature measurements during irradiation tests by exploiting the melting point of well-characterized materials. Recent efforts to expand the capabilities of such peak temperature detection instrumentation include the development and testing of additively manufactured (AM) melt wires. In an effort to demonstrate and benchmark the performance and reliability of AM melt wires, we conducted a study to compare prototypical standard melt wires to an AM melt wire capsule, composed of printed aluminum, zinc, and tin melt wires. The lowest melting-point material used was Sn, with a melting point of approximately 230 °C, Zn melts at approximately 420 °C, and the high melting-point material was aluminum, with an approximate melting point of 660 °C. Through differential scanning calorimetry and furnace testing we show that the performance of our AM melt wire capsule was consistent with that of the standard melt-wire capsule, highlighting a path towards miniaturized peak-temperature sensors for in-pile sensor applications.Kiyo T. FujimotoLance A. HoneKory D. ManningRobert D. SeifertKurt L. DavisJames N. MillowayRichard S. SkiftonYaqiao WuMalwina WildingDavid EstradaMDPI AGarticleaerosol jet printingin-pile sensorsnuclear energyadditive manufacturingadvanced manufacturingpeak temperature sensorsChemical technologyTP1-1185ENSensors, Vol 21, Iss 7688, p 7688 (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	aerosol jet printing in-pile sensors nuclear energy additive manufacturing advanced manufacturing peak temperature sensors Chemical technology TP1-1185
spellingShingle	aerosol jet printing in-pile sensors nuclear energy additive manufacturing advanced manufacturing peak temperature sensors Chemical technology TP1-1185 Kiyo T. Fujimoto Lance A. Hone Kory D. Manning Robert D. Seifert Kurt L. Davis James N. Milloway Richard S. Skifton Yaqiao Wu Malwina Wilding David Estrada Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
description	Passive monitoring techniques have been used for peak temperature measurements during irradiation tests by exploiting the melting point of well-characterized materials. Recent efforts to expand the capabilities of such peak temperature detection instrumentation include the development and testing of additively manufactured (AM) melt wires. In an effort to demonstrate and benchmark the performance and reliability of AM melt wires, we conducted a study to compare prototypical standard melt wires to an AM melt wire capsule, composed of printed aluminum, zinc, and tin melt wires. The lowest melting-point material used was Sn, with a melting point of approximately 230 °C, Zn melts at approximately 420 °C, and the high melting-point material was aluminum, with an approximate melting point of 660 °C. Through differential scanning calorimetry and furnace testing we show that the performance of our AM melt wire capsule was consistent with that of the standard melt-wire capsule, highlighting a path towards miniaturized peak-temperature sensors for in-pile sensor applications.
format	article
author	Kiyo T. Fujimoto Lance A. Hone Kory D. Manning Robert D. Seifert Kurt L. Davis James N. Milloway Richard S. Skifton Yaqiao Wu Malwina Wilding David Estrada
author_facet	Kiyo T. Fujimoto Lance A. Hone Kory D. Manning Robert D. Seifert Kurt L. Davis James N. Milloway Richard S. Skifton Yaqiao Wu Malwina Wilding David Estrada
author_sort	Kiyo T. Fujimoto
title	Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
title_short	Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
title_full	Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
title_fullStr	Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
title_full_unstemmed	Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications
title_sort	additive manufacturing of miniaturized peak temperature monitors for in-pile applications
publisher	MDPI AG
publishDate	2021
url	https://doaj.org/article/8c9001e3a16c4bbb9ed1e432b9d3355c
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Additive Manufacturing of Miniaturized Peak Temperature Monitors for In-Pile Applications

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