Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint

Abstract The aim of this research is to present a comparative analysis between theoretical and experimental thermal fields as well as a microstructural behaviour and residual stresses applying multiple weld beads in the joint of two API 5L X52 pipe sections. The thermal field, microstructural and re...

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Main Authors: Pedro Hernández Gutiérrez, Francisco Cepeda Rodríguez, Jose Jorge Ruiz Mondragón, Jorge Leobardo Acevedo Dávila, Martha Patricia Guerrero Mata, Carlos Alberto Guevara Chavez
Format: Article
Language:English
Published: Associação Brasileira de Soldagem
Series:Soldagem & Inspeção
Subjects:
Online Access:http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0104-92242016000200156&lng=en&tlng=en
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spelling doaj-69e10cf66be24c0d8f39cce7f5f48cbf2020-11-25T01:51:09ZengAssociação Brasileira de SoldagemSoldagem & Inspeção1980-697321215616410.1590/0104-9224/SI2102.05S0104-92242016000200156Thermo-mechanic and Microstructural Analysis of an Underwater Welding JointPedro Hernández GutiérrezFrancisco Cepeda RodríguezJose Jorge Ruiz MondragónJorge Leobardo Acevedo DávilaMartha Patricia Guerrero MataCarlos Alberto Guevara ChavezAbstract The aim of this research is to present a comparative analysis between theoretical and experimental thermal fields as well as a microstructural behaviour and residual stresses applying multiple weld beads in the joint of two API 5L X52 pipe sections. The thermal field, microstructural and residual stresses were numerically modelled through the finite element method (FEM) and compared to experimentally. The simulation conditions used in the FEM analysis were similar considerations to the underwater welding conditions. The finite element analysis was carried out, first by a non-linear transient thermal analysis for obtaining the global temperature history generated during the underwater welding process. Subsequently, a microstructural behaviour was determined using the temperatures distribution obtained in the pipe material by calculating the structural transformations of the material during the welding process, and finally a stress analysis was developed using the temperatures obtained from the thermal analysis. It was found that this simulation method can be used efficiently to determinate with accuracy the optimum welding parameters of this kind of weld applications.http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0104-92242016000200156&lng=en&tlng=enAPI 5L X52Finite element analysisResidual stressesTemperature fieldUnderwater welding
collection DOAJ
language English
format Article
sources DOAJ
author Pedro Hernández Gutiérrez
Francisco Cepeda Rodríguez
Jose Jorge Ruiz Mondragón
Jorge Leobardo Acevedo Dávila
Martha Patricia Guerrero Mata
Carlos Alberto Guevara Chavez
spellingShingle Pedro Hernández Gutiérrez
Francisco Cepeda Rodríguez
Jose Jorge Ruiz Mondragón
Jorge Leobardo Acevedo Dávila
Martha Patricia Guerrero Mata
Carlos Alberto Guevara Chavez
Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
Soldagem & Inspeção
API 5L X52
Finite element analysis
Residual stresses
Temperature field
Underwater welding
author_facet Pedro Hernández Gutiérrez
Francisco Cepeda Rodríguez
Jose Jorge Ruiz Mondragón
Jorge Leobardo Acevedo Dávila
Martha Patricia Guerrero Mata
Carlos Alberto Guevara Chavez
author_sort Pedro Hernández Gutiérrez
title Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
title_short Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
title_full Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
title_fullStr Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
title_full_unstemmed Thermo-mechanic and Microstructural Analysis of an Underwater Welding Joint
title_sort thermo-mechanic and microstructural analysis of an underwater welding joint
publisher Associação Brasileira de Soldagem
series Soldagem & Inspeção
issn 1980-6973
description Abstract The aim of this research is to present a comparative analysis between theoretical and experimental thermal fields as well as a microstructural behaviour and residual stresses applying multiple weld beads in the joint of two API 5L X52 pipe sections. The thermal field, microstructural and residual stresses were numerically modelled through the finite element method (FEM) and compared to experimentally. The simulation conditions used in the FEM analysis were similar considerations to the underwater welding conditions. The finite element analysis was carried out, first by a non-linear transient thermal analysis for obtaining the global temperature history generated during the underwater welding process. Subsequently, a microstructural behaviour was determined using the temperatures distribution obtained in the pipe material by calculating the structural transformations of the material during the welding process, and finally a stress analysis was developed using the temperatures obtained from the thermal analysis. It was found that this simulation method can be used efficiently to determinate with accuracy the optimum welding parameters of this kind of weld applications.
topic API 5L X52
Finite element analysis
Residual stresses
Temperature field
Underwater welding
url http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0104-92242016000200156&lng=en&tlng=en
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