An experimental investigation on the effect of gas tungsten arc welding current modes upon the microstructure, mechanical, and fractography properties of welded joints of two grades of AISI 316L and AISI310S alloy metal sheets
In this investigation, dissimilar welded joints of AISI 316 L and AISI 310S stainless steels were produced using continuous and pulsed modes current of the gas tungsten arc welding process. A filler metal type ER309L was used to strengthen the welded joints. The fracture mode of the tensile and Char...
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creator | Sabzi, M. Mousavi Anijdan, S.H. Chalandar, A.R. Bali Park, N. Jafarian, H.R. Eivani, A.R. |
description | In this investigation, dissimilar welded joints of AISI 316 L and AISI 310S stainless steels were produced using continuous and pulsed modes current of the gas tungsten arc welding process. A filler metal type ER309L was used to strengthen the welded joints. The fracture mode of the tensile and Charpy impact test samples was studied using a field emission scanning electron microscope (FE-SEM). Results showed that the welded joints were broken in the 316 L steel side during the tensile test due to the presence of lower alloying elements in this steel compared with the AISI 310S stainless steel. As well, microhardness and Charpy impact tests results showed that changing the welding current from continuous to the pulsed one increased the values of these two mentioned attributes. Fractography analysis, performed on the fracture surfaces of both joints, showed a completely ductile fracture under both tensile and Charpy impact tests. Moreover, microstructural observations showed that the weld metal (WM) structure was austenitic-ferritic (AF) and contained columnar and equiaxed dendrites. Changing the welding current from the continuous to the pulsed one led to the transformation of the columnar dendrites to the very fine equiaxed dendrites. This welding current variation reduced the dendrite size of the WM and decreased the area of the unmixed zone (UMZ). Finally, XRD results indicated that austenite was the predominant phase in the welded joints.
•Microstructural observations indicated that austenite was the predominant phase in the WM and the BMs.•Pulsed current increased delta ferrite distribution in the WM & changed columnar dendrites to fine/equiaxed morphology.•The welded joints of both welding current modes were broken from the 316L steel side during tensile tests.•Microhardness results pointed out that hardness values were ascending from both BMs towards the center of the WM.•Fractography analysis of the joints depicted a completely ductile fracture with the dimple characteristic. |
doi_str_mv | 10.1016/j.msea.2022.142877 |
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•Microstructural observations indicated that austenite was the predominant phase in the WM and the BMs.•Pulsed current increased delta ferrite distribution in the WM & changed columnar dendrites to fine/equiaxed morphology.•The welded joints of both welding current modes were broken from the 316L steel side during tensile tests.•Microhardness results pointed out that hardness values were ascending from both BMs towards the center of the WM.•Fractography analysis of the joints depicted a completely ductile fracture with the dimple characteristic.</description><identifier>ISSN: 0921-5093</identifier><identifier>EISSN: 1873-4936</identifier><identifier>DOI: 10.1016/j.msea.2022.142877</identifier><language>eng</language><publisher>Lausanne: Elsevier B.V</publisher><subject>Alloying elements ; Austenitic stainless steel ; Austenitic stainless steels ; Charpy impact test ; Columnar structure ; Dendritic structure ; Dissimilar joint ; Dissimilar material joining ; Dissimilar metals ; Ductile fracture ; Emission analysis ; Field emission microscopy ; Filler metals ; Fractography ; Fracture mode ; Fracture surfaces ; Gas tungsten arc welding ; GTAW process ; Heat treating ; Impact tests ; Mechanical properties ; Metal sheets ; Microhardness ; Microstructure ; Steel ; Tensile tests ; Weld metal ; Welded joints ; Welding current</subject><ispartof>Materials science & engineering. A, Structural materials : properties, microstructure and processing, 2022-04, Vol.840, p.142877, Article 142877</ispartof><rights>2022 Elsevier B.V.</rights><rights>Copyright Elsevier BV Apr 18, 2022</rights><lds50>peer_reviewed</lds50><woscitedreferencessubscribed>false</woscitedreferencessubscribed><citedby>FETCH-LOGICAL-c328t-1bcc8867c3c01203f557560fa18f189885f2d3affbd365d152d29b6f0345c8303</citedby><cites>FETCH-LOGICAL-c328t-1bcc8867c3c01203f557560fa18f189885f2d3affbd365d152d29b6f0345c8303</cites></display><links><openurl>$$Topenurl_article</openurl><openurlfulltext>$$Topenurlfull_article</openurlfulltext><thumbnail>$$Tsyndetics_thumb_exl</thumbnail><linktohtml>$$Uhttps://www.sciencedirect.com/science/article/pii/S0921509322002854$$EHTML$$P50$$Gelsevier$$H</linktohtml><link.rule.ids>314,776,780,3537,27901,27902,65306</link.rule.ids></links><search><creatorcontrib>Sabzi, M.</creatorcontrib><creatorcontrib>Mousavi Anijdan, S.H.</creatorcontrib><creatorcontrib>Chalandar, A.R. Bali</creatorcontrib><creatorcontrib>Park, N.</creatorcontrib><creatorcontrib>Jafarian, H.R.</creatorcontrib><creatorcontrib>Eivani, A.R.</creatorcontrib><title>An experimental investigation on the effect of gas tungsten arc welding current modes upon the microstructure, mechanical, and fractography properties of welded joints of two grades of AISI 316L and AISI310S alloy metal sheets</title><title>Materials science & engineering. A, Structural materials : properties, microstructure and processing</title><description>In this investigation, dissimilar welded joints of AISI 316 L and AISI 310S stainless steels were produced using continuous and pulsed modes current of the gas tungsten arc welding process. A filler metal type ER309L was used to strengthen the welded joints. The fracture mode of the tensile and Charpy impact test samples was studied using a field emission scanning electron microscope (FE-SEM). Results showed that the welded joints were broken in the 316 L steel side during the tensile test due to the presence of lower alloying elements in this steel compared with the AISI 310S stainless steel. As well, microhardness and Charpy impact tests results showed that changing the welding current from continuous to the pulsed one increased the values of these two mentioned attributes. Fractography analysis, performed on the fracture surfaces of both joints, showed a completely ductile fracture under both tensile and Charpy impact tests. Moreover, microstructural observations showed that the weld metal (WM) structure was austenitic-ferritic (AF) and contained columnar and equiaxed dendrites. Changing the welding current from the continuous to the pulsed one led to the transformation of the columnar dendrites to the very fine equiaxed dendrites. This welding current variation reduced the dendrite size of the WM and decreased the area of the unmixed zone (UMZ). Finally, XRD results indicated that austenite was the predominant phase in the welded joints.
•Microstructural observations indicated that austenite was the predominant phase in the WM and the BMs.•Pulsed current increased delta ferrite distribution in the WM & changed columnar dendrites to fine/equiaxed morphology.•The welded joints of both welding current modes were broken from the 316L steel side during tensile tests.•Microhardness results pointed out that hardness values were ascending from both BMs towards the center of the WM.•Fractography analysis of the joints depicted a completely ductile fracture with the dimple characteristic.</description><subject>Alloying elements</subject><subject>Austenitic stainless steel</subject><subject>Austenitic stainless steels</subject><subject>Charpy impact test</subject><subject>Columnar structure</subject><subject>Dendritic structure</subject><subject>Dissimilar joint</subject><subject>Dissimilar material joining</subject><subject>Dissimilar metals</subject><subject>Ductile fracture</subject><subject>Emission analysis</subject><subject>Field emission microscopy</subject><subject>Filler metals</subject><subject>Fractography</subject><subject>Fracture mode</subject><subject>Fracture surfaces</subject><subject>Gas tungsten arc welding</subject><subject>GTAW process</subject><subject>Heat treating</subject><subject>Impact tests</subject><subject>Mechanical properties</subject><subject>Metal sheets</subject><subject>Microhardness</subject><subject>Microstructure</subject><subject>Steel</subject><subject>Tensile tests</subject><subject>Weld metal</subject><subject>Welded joints</subject><subject>Welding current</subject><issn>0921-5093</issn><issn>1873-4936</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2022</creationdate><recordtype>article</recordtype><recordid>eNp9UcuK3DAQNCGBTDb5gZwEua4neoxsGXIZljwGBnLY5Cw0UssjY0uOJO_u_G6-JPLOngMCoVZXVXdVVX0keEswaT4P2ymB2lJM6ZbsqGjbV9WGiJbVu441r6sN7iipOe7Y2-pdSgPGmOww31R_9x7B0wzRTeCzGpHzD5Cy61V2waNy8hkQWAs6o2BRrxLKi-9TBo9U1OgRRuN8j_QSY2FAUzCQ0DK_ICenY0g5LjovEW7RBPqsvNNqvEXKG2Sj0jn0Uc3nC5pjKJNkVwiK1MoMBg3B-fxcyI8BlU5z_d4f7g-Ikeb4zLO-GMH3SI1juBSZdZd0BsjpffXGqjHBh5f7pvr97euvux_18ef3w93-WGtGRa7JSWshmlYzjQnFzHLe8gZbRYQlohOCW2qYsvZkWMMN4dTQ7tRYzHZcC4bZTfXpylvW-LMUE-UQluiLpKRNQ7ggjNPSRa9dqy8pgpVz8V7FiyRYrlnKQa5ZyjVLec2ygL5cQVDmf3AQZdIOvAbjYglGmuD-B_8HCsuq9Q</recordid><startdate>20220418</startdate><enddate>20220418</enddate><creator>Sabzi, M.</creator><creator>Mousavi Anijdan, S.H.</creator><creator>Chalandar, A.R. Bali</creator><creator>Park, N.</creator><creator>Jafarian, H.R.</creator><creator>Eivani, A.R.</creator><general>Elsevier B.V</general><general>Elsevier BV</general><scope>AAYXX</scope><scope>CITATION</scope><scope>7SR</scope><scope>8BQ</scope><scope>8FD</scope><scope>JG9</scope></search><sort><creationdate>20220418</creationdate><title>An experimental investigation on the effect of gas tungsten arc welding current modes upon the microstructure, mechanical, and fractography properties of welded joints of two grades of AISI 316L and AISI310S alloy metal sheets</title><author>Sabzi, M. ; Mousavi Anijdan, S.H. ; Chalandar, A.R. Bali ; Park, N. ; Jafarian, H.R. ; Eivani, A.R.</author></sort><facets><frbrtype>5</frbrtype><frbrgroupid>cdi_FETCH-LOGICAL-c328t-1bcc8867c3c01203f557560fa18f189885f2d3affbd365d152d29b6f0345c8303</frbrgroupid><rsrctype>articles</rsrctype><prefilter>articles</prefilter><language>eng</language><creationdate>2022</creationdate><topic>Alloying elements</topic><topic>Austenitic stainless steel</topic><topic>Austenitic stainless steels</topic><topic>Charpy impact test</topic><topic>Columnar structure</topic><topic>Dendritic structure</topic><topic>Dissimilar joint</topic><topic>Dissimilar material joining</topic><topic>Dissimilar metals</topic><topic>Ductile fracture</topic><topic>Emission analysis</topic><topic>Field emission microscopy</topic><topic>Filler metals</topic><topic>Fractography</topic><topic>Fracture mode</topic><topic>Fracture surfaces</topic><topic>Gas tungsten arc welding</topic><topic>GTAW process</topic><topic>Heat treating</topic><topic>Impact tests</topic><topic>Mechanical properties</topic><topic>Metal sheets</topic><topic>Microhardness</topic><topic>Microstructure</topic><topic>Steel</topic><topic>Tensile tests</topic><topic>Weld metal</topic><topic>Welded joints</topic><topic>Welding current</topic><toplevel>peer_reviewed</toplevel><toplevel>online_resources</toplevel><creatorcontrib>Sabzi, M.</creatorcontrib><creatorcontrib>Mousavi Anijdan, S.H.</creatorcontrib><creatorcontrib>Chalandar, A.R. Bali</creatorcontrib><creatorcontrib>Park, N.</creatorcontrib><creatorcontrib>Jafarian, H.R.</creatorcontrib><creatorcontrib>Eivani, A.R.</creatorcontrib><collection>CrossRef</collection><collection>Engineered Materials Abstracts</collection><collection>METADEX</collection><collection>Technology Research Database</collection><collection>Materials Research Database</collection><jtitle>Materials science & engineering. A, Structural materials : properties, microstructure and processing</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Sabzi, M.</au><au>Mousavi Anijdan, S.H.</au><au>Chalandar, A.R. Bali</au><au>Park, N.</au><au>Jafarian, H.R.</au><au>Eivani, A.R.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>An experimental investigation on the effect of gas tungsten arc welding current modes upon the microstructure, mechanical, and fractography properties of welded joints of two grades of AISI 316L and AISI310S alloy metal sheets</atitle><jtitle>Materials science & engineering. A, Structural materials : properties, microstructure and processing</jtitle><date>2022-04-18</date><risdate>2022</risdate><volume>840</volume><spage>142877</spage><pages>142877-</pages><artnum>142877</artnum><issn>0921-5093</issn><eissn>1873-4936</eissn><abstract>In this investigation, dissimilar welded joints of AISI 316 L and AISI 310S stainless steels were produced using continuous and pulsed modes current of the gas tungsten arc welding process. A filler metal type ER309L was used to strengthen the welded joints. The fracture mode of the tensile and Charpy impact test samples was studied using a field emission scanning electron microscope (FE-SEM). Results showed that the welded joints were broken in the 316 L steel side during the tensile test due to the presence of lower alloying elements in this steel compared with the AISI 310S stainless steel. As well, microhardness and Charpy impact tests results showed that changing the welding current from continuous to the pulsed one increased the values of these two mentioned attributes. Fractography analysis, performed on the fracture surfaces of both joints, showed a completely ductile fracture under both tensile and Charpy impact tests. Moreover, microstructural observations showed that the weld metal (WM) structure was austenitic-ferritic (AF) and contained columnar and equiaxed dendrites. Changing the welding current from the continuous to the pulsed one led to the transformation of the columnar dendrites to the very fine equiaxed dendrites. This welding current variation reduced the dendrite size of the WM and decreased the area of the unmixed zone (UMZ). Finally, XRD results indicated that austenite was the predominant phase in the welded joints.
•Microstructural observations indicated that austenite was the predominant phase in the WM and the BMs.•Pulsed current increased delta ferrite distribution in the WM & changed columnar dendrites to fine/equiaxed morphology.•The welded joints of both welding current modes were broken from the 316L steel side during tensile tests.•Microhardness results pointed out that hardness values were ascending from both BMs towards the center of the WM.•Fractography analysis of the joints depicted a completely ductile fracture with the dimple characteristic.</abstract><cop>Lausanne</cop><pub>Elsevier B.V</pub><doi>10.1016/j.msea.2022.142877</doi></addata></record> |
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subjects | Alloying elements Austenitic stainless steel Austenitic stainless steels Charpy impact test Columnar structure Dendritic structure Dissimilar joint Dissimilar material joining Dissimilar metals Ductile fracture Emission analysis Field emission microscopy Filler metals Fractography Fracture mode Fracture surfaces Gas tungsten arc welding GTAW process Heat treating Impact tests Mechanical properties Metal sheets Microhardness Microstructure Steel Tensile tests Weld metal Welded joints Welding current |
title | An experimental investigation on the effect of gas tungsten arc welding current modes upon the microstructure, mechanical, and fractography properties of welded joints of two grades of AISI 316L and AISI310S alloy metal sheets |
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