Resistance spot weldability of lightweight steel with a high Al content

Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditions were specified; however, these had very narrow ranges and there was...

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Published inMetals and materials international Vol. 23; no. 2; pp. 341 - 349
Main Authors Hwang, Insung, Kim, Dongcheol, Kang, Munjin, Kwak, Jae-Hyun, Kim, Young-Min
Format Journal Article
LanguageEnglish
Published Seoul The Korean Institute of Metals and Materials 01.03.2017
Springer Nature B.V
대한금속·재료학회
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ISSN1598-9623
2005-4149
DOI10.1007/s12540-017-6349-x

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Abstract Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditions were specified; however, these had very narrow ranges and there was little difference between the conditions determined for the AC- and DC-type welding. In both types of welding with electrode forces of of 300 kg f and 400 kg f , the acceptable weld currents were 5.0 kA and 5.5 kA, respectively. Also, the nugget size increased with the welding current. Under the acceptable welding conditions, there were no significant changes in the maximum tensile shear strength and nugget size, as 6.4-6.6 kN and 4.1-4.3 mm, respectively. The microstructure of weld metals was consisted of martensite, austenite and ferrite. And the small fraction of martensite was founded in the heat affected zone (HAZ), therefore the weld metal had the greatest hardness, and HAZ softening did not occur in this study. Considering the fracture surface, cleavage and ductile fracture were investigated because of the existence of martensite and ferrite in the welds.
AbstractList Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditions were specified; however, these had very narrow ranges and there was little difference between the conditions determined for the AC- and DC-type welding. In both types of welding with electrode forces of of 300 kg f and 400 kg f , the acceptable weld currents were 5.0 kA and 5.5 kA, respectively. Also, the nugget size increased with the welding current. Under the acceptable welding conditions, there were no significant changes in the maximum tensile shear strength and nugget size, as 6.4-6.6 kN and 4.1-4.3 mm, respectively. The microstructure of weld metals was consisted of martensite, austenite and ferrite. And the small fraction of martensite was founded in the heat affected zone (HAZ), therefore the weld metal had the greatest hardness, and HAZ softening did not occur in this study. Considering the fracture surface, cleavage and ductile fracture were investigated because of the existence of martensite and ferrite in the welds.
Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditions were specified; however, these had very narrow ranges and there was little difference between the conditions determined for the AC- and DC-type welding. In both types of welding with electrode forces of of 300 kg sub(f) and 400 kg sub(f), the acceptable weld currents were 5.0 kA and 5.5 kA, respectively. Also, the nugget size increased with the welding current. Under the acceptable welding conditions, there were no significant changes in the maximum tensile shear strength and nugget size, as 6.4-6.6 kN and 4.1-4.3 mm, respectively. The microstructure of weld metals was consisted of martensite, austenite and ferrite. And the small fraction of martensite was founded in the heat affected zone (HAZ), therefore the weld metal had the greatest hardness, and HAZ softening did not occur in this study. Considering the fracture surface, cleavage and ductile fracture were investigated because of the existence of martensite and ferrite in the welds.
Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweightsteel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditionswere specified; however, these had very narrow ranges and there was little difference between theconditions determined for the AC- and DC-type welding. In both types of welding with electrode forces ofof 300 kgf and 400 kgf, the acceptable weld currents were 5.0 kA and 5.5 kA, respectively. Also, the nuggetsize increased with the welding current. Under the acceptable welding conditions, there were no significantchanges in the maximum tensile shear strength and nugget size, as 6.4-6.6 kN and 4.1-4.3mm, respectively. Themicrostructure of weld metals was consisted of martensite, austenite and ferrite. And the small fraction ofmartensite was founded in the heat affected zone (HAZ), therefore the weld metal had the greatest hardness,and HAZ softening did not occur in this study. Considering the fracture surface, cleavage and ductile fracturewere investigated because of the existence of martensite and ferrite in the welds. KCI Citation Count: 0
Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various electrode forces, welding currents, and times. The acceptable welding conditions were specified; however, these had very narrow ranges and there was little difference between the conditions determined for the AC- and DC-type welding. In both types of welding with electrode forces of of 300 kgf and 400 kgf, the acceptable weld currents were 5.0 kA and 5.5 kA, respectively. Also, the nugget size increased with the welding current. Under the acceptable welding conditions, there were no significant changes in the maximum tensile shear strength and nugget size, as 6.4-6.6 kN and 4.1-4.3 mm, respectively. The microstructure of weld metals was consisted of martensite, austenite and ferrite. And the small fraction of martensite was founded in the heat affected zone (HAZ), therefore the weld metal had the greatest hardness, and HAZ softening did not occur in this study. Considering the fracture surface, cleavage and ductile fracture were investigated because of the existence of martensite and ferrite in the welds.
Author Hwang, Insung
Kim, Dongcheol
Kang, Munjin
Kwak, Jae-Hyun
Kim, Young-Min
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Keywords welding
microstructure
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lightweight steel
high aluminum content
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대한금속·재료학회
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Snippet Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweight steel was evaluated under various...
Using alternating current (AC)- and direct current (DC)-type welders, the resistance spot weldability of lightweightsteel was evaluated under various electrode...
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SubjectTerms Acceptability
Alternating current
Characterization and Evaluation of Materials
Chemistry and Materials Science
Direct current
Ductile fracture
Ductility
Electrodes
Engineering Thermodynamics
Ferrite
Fracture surfaces
Heat affected zone
Heat and Mass Transfer
Lightweight
Machines
Magnetic Materials
Magnetism
Manufacturing
Martensite
Materials Science
Mechanical properties
Metallic Materials
Microstructure
Processes
Research methodology
Scanning electron microscopy
Shear strength
Shear tests
Solid Mechanics
Steel
Weight reduction
Weld metal
Weldability
Welding
Welding current
Welding machines
재료공학
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Title Resistance spot weldability of lightweight steel with a high Al content
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