Title
Weld Strength And Process Controllability For Laser Welding Of Thin Sheet Metals
Abstract
Laser welding is a promising technique for joining of thin sheet metal due to its precise heat input control, and the optimized welds should have the desired strength and minimum overheating. The optimum weld depth for maximum weld strength is studied by developing a geometrical model and conducting tensile-shear tests on lap welded thin stainless steel sheets of 100 μm thickness. The results show that to a large extent the strength of lap welds is influenced by the weld geometry. A three-dimensional quasisteady state heat conduction model is presented to predict the weld geometry produced in conduction laser welding of thin sheets under different process parameters. The controllability of weld depth is studied experimentally and theoretically by varying the laser power. A process parameter region has been identified for difficult control of the welding process.
Publication Date
1-1-2000
Publication Title
Journal of Laser Applications
Volume
12
Issue
6
Number of Pages
239-244
Document Type
Article
Personal Identifier
scopus
DOI Link
https://doi.org/10.2351/1.1324715
Copyright Status
Unknown
Socpus ID
0034427932 (Scopus)
Source API URL
https://api.elsevier.com/content/abstract/scopus_id/0034427932
STARS Citation
Du, J.; Longobardi, J.; and Latham, W. P., "Weld Strength And Process Controllability For Laser Welding Of Thin Sheet Metals" (2000). Scopus Export 2000s. 1089.
https://stars.library.ucf.edu/scopus2000/1089