Applicability of the induction bending process to the P91 pipe of the PGSFR

The application of induction bending processes to industrial pipe production is increasing. The induction bending process has the effect of reducing the number of inspections and preventing leaks by reducing the weld of the pipe. For these reasons, efforts have been made to apply an induction bendin...

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Published inNuclear engineering and technology Vol. 53; no. 5; pp. 1580 - 1586
Main Authors Kim, Nak Hyun, Kim, Jong Bum, Kim, Sung Kyun
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.05.2021
Elsevier
한국원자력학회
Subjects
Online AccessGet full text
ISSN1738-5733
2234-358X
DOI10.1016/j.net.2020.10.021

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Abstract The application of induction bending processes to industrial pipe production is increasing. The induction bending process has the effect of reducing the number of inspections and preventing leaks by reducing the weld of the pipe. For these reasons, efforts have been made to apply an induction bending process to the pipe of the PGSFR under development in Korea and this is the first attempt in the SFR design. Since the PGSFR pipe has a relatively large diameter-to-thickness ratio, it is difficult to fabricate an induction bending pipe that meets the requirements. In addition, the material properties may change because the pipe heats to a very high temperature during the induction bending process. In this study, P91 pipes were fabricated by induction bending, and the results from analyzing the induction bending process’ applicability to the P91 pipe of the PGSFR are examined. The various dimensional measurements of the pipes fabricated by the induction bending process were surveyed to determine whether the requirements of the ASME Code were met. The minimum thickness, ovality, and wall buckling measured in the fabricated pipe met all the requirements. Tensile, impact, and hardness tests at various locations of the fabricated pipe also satisfied the requirements.
AbstractList The application of induction bending processes to industrial pipe production is increasing. The inductionbending process has the effect of reducing the number of inspections and preventing leaks by reducingthe weld of the pipe. For these reasons, efforts have been made to apply an induction bending process tothe pipe of the PGSFR under development in Korea and this is the first attempt in the SFR design. Sincethe PGSFR pipe has a relatively large diameter-to-thickness ratio, it is difficult to fabricate an inductionbending pipe that meets the requirements. In addition, the material properties may change because thepipe heats to a very high temperature during the induction bending process. In this study, P91 pipes werefabricated by induction bending, and the results from analyzing the induction bending process’ applicabilityto the P91 pipe of the PGSFR are examined. The various dimensional measurements of the pipesfabricated by the induction bending process were surveyed to determine whether the requirements ofthe ASME Code were met. The minimum thickness, ovality, and wall buckling measured in the fabricatedpipe met all the requirements. Tensile, impact, and hardness tests at various locations of the fabricatedpipe also satisfied the requirements. KCI Citation Count: 0
The application of induction bending processes to industrial pipe production is increasing. The induction bending process has the effect of reducing the number of inspections and preventing leaks by reducing the weld of the pipe. For these reasons, efforts have been made to apply an induction bending process to the pipe of the PGSFR under development in Korea and this is the first attempt in the SFR design. Since the PGSFR pipe has a relatively large diameter-to-thickness ratio, it is difficult to fabricate an induction bending pipe that meets the requirements. In addition, the material properties may change because the pipe heats to a very high temperature during the induction bending process. In this study, P91 pipes were fabricated by induction bending, and the results from analyzing the induction bending process’ applicability to the P91 pipe of the PGSFR are examined. The various dimensional measurements of the pipes fabricated by the induction bending process were surveyed to determine whether the requirements of the ASME Code were met. The minimum thickness, ovality, and wall buckling measured in the fabricated pipe met all the requirements. Tensile, impact, and hardness tests at various locations of the fabricated pipe also satisfied the requirements.
Author Kim, Nak Hyun
Kim, Jong Bum
Kim, Sung Kyun
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Cites_doi 10.1007/s00170-015-7898-0
10.1016/j.net.2016.08.004
10.1007/s12541-011-0140-6
10.14773/cst.2015.14.3.120
10.14773/cst.2015.14.2.47
10.1155/2013/290362
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Issue 5
Keywords Fabrication
PGSFR
Dimensional measurements
Induction bending
Material properties
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한국원자력학회
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Snippet The application of induction bending processes to industrial pipe production is increasing. The induction bending process has the effect of reducing the number...
The application of induction bending processes to industrial pipe production is increasing. The inductionbending process has the effect of reducing the number...
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SubjectTerms Dimensional measurements
Fabrication
Induction bending
Material properties
PGSFR
원자력공학
Title Applicability of the induction bending process to the P91 pipe of the PGSFR
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