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Submitted
3 November 2023
Accepted
16 December 2023
Published
30 December 2023
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Abstract

Welding, with its advantages of expedient execution and reduced weight, is a favored method for structural connections. However, it poses a significant risk, softening the steel and diminishing load-bearing capacity, underscoring the importance of accurate estimation. The need for precision is paramount, as critical infrastructure must remain operational not only during disasters but also during repair and maintenance activities. To address this challenge, this research introduces an approach to estimate the extent of capacity reduction resulting from welding, providing engineers with valuable insights for maintaining these critical systems structural integrity and functionality.


The study examined low-carbon steel with various thicknesses, focusing on Heat Affected Zone (HAZ) width calculations and Abaqus simulations. Welding was performed at a speed of 1.67 cm/s with a 5 mm element increment. This research aimed to investigate the impact of welding parameters on low-carbon steel, particularly concerning HAZ measurements. A 4 mm-thick plate generated a 38.73 mm affected zone, while simulations with 5 mm to 12 mm thicknesses produced progressively narrower affected zones. Results demonstrated that steel plate thickness significantly influences the affected zone width, with thicker plates yielding narrower affected zones.


The study examined low carbon steel with a 4 mm thickness, focusing on Heat Affected Zone (HAZ) width calculations and Abaqus simulations. Welding was performed at a speed of 1.67 cm/s with a 5 mm element increment. The research aimed to investigate the impact of welding parameters on low carbon steel, particularly concerning HAZ measurements. Results demonstrated that steel plate thickness significantly influences the affected zone width, with thicker plates yielding narrower affected zones. A 4 mm-thick plate generated a 38.73 mm affected zone, while simulations with 5 mm to 12 mm thicknesses produced progressively narrower affected zones.

Keywords

Welding Heat affected zone Distortion Residual stress Peak temperature

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How to Cite
Mushthofa, M., Fakhri Pratama Nurfauzi, & Astriana Hardawati. (2023). Investigation of Effective Section Reduction in Low Carbon Steel during SMAW Welding. Teknisia, 28(2), 79–89. https://doi.org/10.20885/teknisia.vol28.iss2.art2
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References

  1. Ahola, A., Lipiäinen, K., Lindroos, J., Koskimäki, M., Laukia, K., & Björk, T. (2023). On the Fatigue Strength of Welded High-Strength Steel Joints in the As-Welded, Post-Weld-Treated and Repaired Conditions in a Typical Ship Structural Detail. Journal of Marine Science and Engineering, 11(3). https://doi.org/10.3390/jmse11030644
  2. Andreotti, M., Brondi, C., Micillo, D., Zevenhoven, R., Rieger, J., Jo, A., Hettinger, A. L., Bollen, J., Malfa, E., Trevisan, C., Peters, K., Snaet, D., & Ballarino, A. (2023). SDGs in the EU Steel Sector: A Critical Review of Sustainability Initiatives and Approaches. Sustainability (Switzerland), 15(9). https://doi.org/10.3390/su15097521
  3. Arifin, A., & Hendrianto, M. (2018). Pengaruh Arus dan Jarak Kampuh Pengelasan Terhadap Distorsi Sambungan Pelat Baja Karbon Rendah Dengan Menggunakan SMAW: Vol. IV (Issue 1). http://jurnal.untirta.ac.id/index.php/jwl
  4. H. P., A., W., A., & P., A. (2012). Distribusi dan Interaksi Tegangan Sisa antar Lubang Setelah Proses Cold Expansion Hole. In Jurnal Rekayasa Mesin (Vol. 3, Issue 3).
  5. Jeffus, L. (2017). Welding Principles and Applications Eighth Edition. www.cengage.com/highered
  6. Khan, K., Chen, Z., Liu, J., & Javed, K. (2023). State-of-the-Art on Technological Developments and Adaptability of Prefabricated Industrial Steel Buildings. In Applied Sciences (Switzerland) (Vol. 13, Issue 2). MDPI. https://doi.org/10.3390/app13020685
  7. Kou, S. (2003). Welding Metallurgy Second Edition.
  8. Liew, J. Y. R., Chua, Y. S., & Dai, Z. (2019). Steel concrete composite systems for modular construction of high-rise buildings. Structures, 21, 135–149. https://doi.org/10.1016/j.istruc.2019.02.010
  9. Lu, Wei., Mäkeläinen, Pentti., & Painopörssi). (2003). Advanced Steel Structures - Fire and Fatigue Design. Helsinki University of Technology.
  10. Nursani, R., Syarif, M., & Huseiny, A. (2020). Akselerasi: Jurnal Ilmiah Teknik Sipil ANALISIS NUMERIK SAMBUNGAN LAS STRUKTUR BAJA DENGAN MENERAPKAN VARIASI LAYOUT LAS. 2(1).
  11. Ozcatalbas, Y., & Vural, H. I. (2009). Determination of optimum welding sequence and distortion forces in steel lattice beams. Journal of Materials Processing Technology, 209(1), 599–604. https://doi.org/10.1016/j.jmatprotec.2008.02.051
  12. Roy, K., Dani, A. A., Ichhpuni, H., Fang, Z., & Lim, J. B. P. (2022). Improving Sustainability of Steel Roofs: Life Cycle Assessment of a Case Study Roof. Applied Sciences (Switzerland), 12(12). https://doi.org/10.3390/app12125943
  13. Salamati Nia, S. P., & Kulatunga, U. (2017). Safety and security of hospitals during natural disasters: Challenges of disaster managers. International Journal of Safety and Security Engineering, 7(2), 234–246. https://doi.org/10.2495/SAFE-V7-N2-234-246
  14. Szymczak, T., Makowska, K., & Kowalewski, Z. L. (2020). Influence of the welding process on the mechanical characteristics and fracture of the s700mc high strength steel under various types of loading. Materials, 13(22), 1–17. https://doi.org/10.3390/ma13225249
  15. Weiss, S., Pense, A. W., Reynolds, Jr. , S. D., Weisman, C., Betz, I. G., Frohlich, R. L., Saperstein, Z. P., Somers, R. E., Stern, I. L., Telford, R. T., & Wilcox, W. L. (1976). Fundamentals of Welding.
  16. Weman, Klas. (2003). Welding processes handbook. Woodhead Pub.
  17. Ye, Z., Liu, J., Xie, C., & Zhang, S. (2023). Numerical Simulation of Welding Temperature Field, Stress Field, and Strain Field of Fillet Joint in Different Welding Sequence. Journal of Physics: Conference Series, 2541(1), 012003. https://doi.org/10.1088/1742-6596/2541/1/012003