Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts

This paper studies the ultrasonic vibration assisted lifting laser cladding technology. Firstly, the simulation model of ultrasonic vibration-enhanced Ni60 self-fluxing alloy powder coated with 45 steel substrate is established, and the variation law of temperature field and temperature gradient in...

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Бібліографічні деталі
Опубліковано в: :Functional Materials
Дата:2018
Автори: Che Lei, Sun Wenlei, Zhang Guan, Han Jiaxin
Формат: Стаття
Мова:Англійська
Опубліковано: НТК «Інститут монокристалів» НАН України 2018
Теми:
Онлайн доступ:https://nasplib.isofts.kiev.ua/handle/123456789/157421
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Назва журналу:Digital Library of Periodicals of National Academy of Sciences of Ukraine
Цитувати:Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts / Che Lei, Sun Wenlei, Zhang Guan, Han Jiaxin // Functional Materials. — 2018. — Т. 25, № 4. — С. 809-817. — Бібліогр.: 10 назв. — англ.

Репозитарії

Digital Library of Periodicals of National Academy of Sciences of Ukraine
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author Che Lei
Sun Wenlei
Zhang Guan
Han Jiaxin
author_facet Che Lei
Sun Wenlei
Zhang Guan
Han Jiaxin
citation_txt Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts / Che Lei, Sun Wenlei, Zhang Guan, Han Jiaxin // Functional Materials. — 2018. — Т. 25, № 4. — С. 809-817. — Бібліогр.: 10 назв. — англ.
collection DSpace DC
container_title Functional Materials
description This paper studies the ultrasonic vibration assisted lifting laser cladding technology. Firstly, the simulation model of ultrasonic vibration-enhanced Ni60 self-fluxing alloy powder coated with 45 steel substrate is established, and the variation law of temperature field and temperature gradient in ultrasonic vibration strengthening process are analyzed by using Ansys finite element analysis software. After that, the microstructure, microhardness and surface roughness of the cladding layer are compared with that of the cladding test blocks with and without ultrasonic vibration. The results show that as the ultrasonic frequency increases or the scanning speed decreases, the temperature increases everywhere along the Z-axis, and the temperature gradient from the cladding layer to the interface area decreases. Compared to the cladding layer without ultrasonic vibration, the microstructure of the cladding layer obtained by applying ultrasonic vibration is finer and denser due to the effect of ultrasonic cavitation, and the microhardness is increased by 1.37 times and the surface roughness is reduced by 36.6%.
first_indexed 2025-12-07T19:38:26Z
format Article
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id nasplib_isofts_kiev_ua-123456789-157421
institution Digital Library of Periodicals of National Academy of Sciences of Ukraine
issn 1027-5495
language English
last_indexed 2025-12-07T19:38:26Z
publishDate 2018
publisher НТК «Інститут монокристалів» НАН України
record_format dspace
spelling Che Lei
Sun Wenlei
Zhang Guan
Han Jiaxin
2019-06-20T03:26:14Z
2019-06-20T03:26:14Z
2018
Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts / Che Lei, Sun Wenlei, Zhang Guan, Han Jiaxin // Functional Materials. — 2018. — Т. 25, № 4. — С. 809-817. — Бібліогр.: 10 назв. — англ.
1027-5495
DOI:https://doi.org/10.15407/fm25.04.809
https://nasplib.isofts.kiev.ua/handle/123456789/157421
This paper studies the ultrasonic vibration assisted lifting laser cladding technology. Firstly, the simulation model of ultrasonic vibration-enhanced Ni60 self-fluxing alloy powder coated with 45 steel substrate is established, and the variation law of temperature field and temperature gradient in ultrasonic vibration strengthening process are analyzed by using Ansys finite element analysis software. After that, the microstructure, microhardness and surface roughness of the cladding layer are compared with that of the cladding test blocks with and without ultrasonic vibration. The results show that as the ultrasonic frequency increases or the scanning speed decreases, the temperature increases everywhere along the Z-axis, and the temperature gradient from the cladding layer to the interface area decreases. Compared to the cladding layer without ultrasonic vibration, the microstructure of the cladding layer obtained by applying ultrasonic vibration is finer and denser due to the effect of ultrasonic cavitation, and the microhardness is increased by 1.37 times and the surface roughness is reduced by 36.6%.
This work was financially supported by Xinjiang uygur autonomus region hightech research and development project and Xinjiang uygur autonomous region youth natural science fund project.
en
НТК «Інститут монокристалів» НАН України
Functional Materials
Technology
Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
Article
published earlier
spellingShingle Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
Che Lei
Sun Wenlei
Zhang Guan
Han Jiaxin
Technology
title Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
title_full Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
title_fullStr Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
title_full_unstemmed Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
title_short Research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
title_sort research on ultrasonic vibration assisted repair technology of high temperature and high pressure parts
topic Technology
topic_facet Technology
url https://nasplib.isofts.kiev.ua/handle/123456789/157421
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AT sunwenlei researchonultrasonicvibrationassistedrepairtechnologyofhightemperatureandhighpressureparts
AT zhangguan researchonultrasonicvibrationassistedrepairtechnologyofhightemperatureandhighpressureparts
AT hanjiaxin researchonultrasonicvibrationassistedrepairtechnologyofhightemperatureandhighpressureparts