INVESTIGATION OF THE HEAT AFFECTED ZONE BY THERMAL CYCLE SIMULATION TECHNIQUE
Abstract
Keywords
Heat affected zone, Therman cycle simulation, Steel, Microstructures
References
- 1. Dzidowski, E.S., and Banach, J. Working conditions and the potential damage of energy pipelines with respect to welding technology [in Polish]. Proceedings of 1-st scientific-technical conference PIRE -98, 1998, 57-62.
- 2. Abson D.J., Tkach, Y., Hadley, I., Wright, and V.S., Burdekin, F.M. A review of postweld heat treatment code exemptions. Weld J, 2006, 85: 63–69.
- 3. Gunaraj, V. and Murugan, N. Prediction of Heat affected zone characteristics in submerged arc welding of structural steel pipes. Welding research, 2002 :94-98.
- 4. Moghaddam M.A., Golmezergi R., and Kolahan F. Multi-variable measurements and optimization of GMAW parameters forAPI-X42 steel alloy using a hybrid BPNN-PSO approach. Measurement, 2016, 92: 279-287.
- 5. Samardžić I, Stoić A, Kozak D, Kladaric I, Dunđer M. Application of Weld Thermal Cycle Simulator in Manufacturing Engineering, J. of Manufac. and Indust. Eng. 2013, 12: 7–11.
- 6. Dunder M., Vuherer T., and Kladaric I. Weldability Investigation of TStE 420 after Weld Thermal Cycle Simulation, Strojarstvo, 2010, 52, 97–104.
- 7. Górka, J., Janicki, D., Fidali, M., and Jamrozik, W. Thermographic assessment of the HAZ Properties and structure of thermomechanically treated steel, Int J Thermophys,2017: 38-183.
- 8. Dunđer, M., Samardžić, I., and Vuherer, T. Weldability Investigation Steel P91 by Weld Thermal Cycle Simulation, Metalurgija, 2015, 54: 539–542.
- 9. Boumerzoug, Z., and Cherif, S. (2017), Thermal cycle simulation of welding process in Inc 738 LC superalloy, K. Eng. mater.,2017, 735: 75-79.
- 10. Raouache, E., Boumerzoug, Z., Delaunois; F., and Khalfallah, F. Investigation by Thermal Cycle Simulation of Heat Affected Zone in Welded AA2014 Aluminum Alloy. Res Dev Material Sci. 2020, 13(3). RDMS.000812.
