Abstract
The growth path of advanced and develo** countries demands huge amounts of raw materials and energy sources. In applications such as transportation of flammable oil/gas(es), which frequently involve high pressures, render steel the optimum pipe material. Modern steel grades ensure safe and reliable long service life of the pipeline. The most sensitive part is the weld in which defects may be introduced. Pipelines are exposed to harsh conditions (e.g., arctic environment, sour service, high pressures, etc.). Pipes are typically welded using high frequency induction welding (HFIW) and submerged arc welding (SAW), both high productivity techniques. This chapter overviews requirements, production methods, and metallurgical phenomena that occur during pipe manufacturing and may affect weld quality. Scholars, students, and engineers are introduced to the challenges of industrial welding and to the significance of steel in matching application requirements of harsh environments.
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References
Administration UEI (2020) International Energy Outlook 2019 key takeaway
Steffen M, Luxenburger G, Thieme A, Demmerath A (2004) Sour service with a smile—outline considerations for the production of HIC resistant pressure vessel plates. Dillinger Hütte GTS, Germany
Stalheim DG, Hoh B (2010) Guidelines for production of API pipelines steels suitable for Hydrogen Induced Cracking (HIC) service applications. Calgary, Alberta, Canada
Hejazi D et al (2012) Effect of manganese content and microstructure on the susceptibility of X70 pipeline steel to hydrogen cracking. Mater Sci Eng 551:40–49
Zhang T-Y, Wat I (2003) Characterization of isolated hydrogen traps hydrogen permeation experiments. J Appl Phys 93(6016)
Clay DB, Mccutcheon DB (1976) Development of line pipe steels. Philos Trans R Soc Lond 282(1307):305–318
Singh R (2013) Arctic pipeline planning. Elsevier, Gulf Professional Publishing, Houston
Koto J (2016) Subsea pipeline design & application. Ocean & Aerospace Research Institute, Indonesia
Tadavi T et al (2017) Microscopic analysis of heat affected zone (HAZ) of submerged arc welding (SAW) joint for 1018 mild steel sheet. Adv Intel Syst Res 137:194–199
Yang Y (n.d.) The effect of submerged arc welding parameters on the properties of pressure vessel and wind turbine tower steels. Department of Mechanical Engineering, University of Saskatchewan
Kang KB et al (2011) Development of high strength and high performance linepipe and shipbuilding steels. In: Advanced steels. Springer, Berlin, pp 281–288
Runte E (1968) The brown Boveri review 55(3):113–118
Ramo S, Whinnery JR, Duzer V (1984) Fields and waves in communication electronics. Wiley, Hoboken
Warren LF (2001) Tube international
Scott PF, Smith W (1996) Tube international 147–152
Yu C (1996) Tube international. pp 153–155
Yu C (1996) Tube international
Revie RW (2015) Oil and gas pipelines—integrity and safety handbook. Wiley, Canada
Easterling K (1992) Introduction to the physical metallurgy of welding. Butterworth-Heinemann, Oxford
IIS/IIW-382-71 (1971) Guide to the welding and weldability of C-Mn steels and C-Mn microalloyed. International Institute of Welding, Paris
Williams JG et al (1996) High strength ERW linepipe manufacture in Australia. Mater Forum 20:13–28
Zhao MC, Yang K, Shan Y (2002) The effects of thermo-mechanical control process on microstructures. Mater Sci Eng 335:14–20
Glandman T (2002) The physical metallurgy of micralloyed steels. Maney, London
Honeycomb RWK, Bhadeshia HKDH (1995) Steels, microstructures and properties. Edward Arnold, London
Bailey N (1994) Weldability of ferritic steels. Woodhead Publishing Series in Welding and Other Joining Technologies, Cambridge
Handbook A (1990) Properties and selection: irons steels and high performance alloys. ASM International, Cleveland
Callister WD, Rethwisch DG (2014) Materials science and engineering—an introduction. Wiley, Hoboken
Kou S (2003) Welding metallurgy. Wiley, Hoboken
Totten GE (2006) Steel heat treatment handbook. Taylor & Francis Group, Milton Park
Zhou X et al (2017) Austenite to polygonal-ferrite transformation and carbide precipitation in high strength low alloy steel. Int J Mater Res 108(1):12–19
Bhadeshia H (1981) Widmanstatten Ferrite
Aaronson HI (1993) Atomic mechanisms of diffusional nucleation and growth and comparisons with their counterparts in shear transformations. Metall Trans 24(2):241–276
Huang B-M et al (2012) The influence of Widmanstatten ferrite on yielding behavior of Nb-containing reinforcing steel bars. Scripta Mater 67(5):431–434
Zhao S, Wei D, Li R, Zhang L (2014) Effect of cooling rate on phase transformation and microstructure of Nb-Ti microalloyed steels. Mater Trans 55(8):1274–1279
Bhadeshia H (2001) Bainite in steels. IOM Communications, London
Sinha A (2003) Martensite. Physical metallurgy handbook. McGraw-Hill, New York
Cohen M, Olson GB, Clapp P (1979) Cambridge, Massachussetts USA
Handbook A (1991) Volume 4—Heat treating. ASM International, Cleveland
Olson GB (1992) Introduction: martensite in perspective. ASM International, Cleveland
Bowles JS, Mackenzie JK (1954) The crystallography of martensite transformation I. Acta Metall 2(1):129–137
Wechsler M, Lieberman D, Read T (1953) On the theory of the formation of martensite. J Metals 197:1503–1515
Bhadeshia HKDH (2013) About calculating the characteristics of the martensite—austenite constituent
Williams J et al (1995) Modern technology for ERW linepipe steel production: X60 to X80 and beyond
Choi H et al (2004) Penetrator formation mechanisms during high-frequency electric resistance welding. Wend J 27–31
Yokoyama E et al (1979) Effects of welding conditions and Mn/Si ratio on the penetrator defect occurence in ERW high manganese linepipe. Kawasaki Steel Corporation, Japan
Haga H, Aoki K, Sato T (1981) The mechanisms of formation of weld defects in high frequency electric resistance welding. Weld Res Suppl 104–107
Kumar S et al (2013) API X 70 Grade HR Coils for ERW Pipes. Int J Metall Eng 2(2):179–187
Carneiro R, Ratnapuli R, Lins VDFC (2003) The influence of chemical composition and microstructure of API linepipe steels on hydrogen induced cracking and sulfide stress corrosion cracking. Mater Sci Eng A 357:104–110
Park GT, Koh SU, Jung HG, Kim KY (2008) Effect of microstructure on the hydrogen trap** efficiency and hydrogen induced cracking of linepipe steel. Corros Sci 50:1865–1871
Beidokhti B, Dolati A, Koukabi AH (2009) Effects of alloying elements and microstructure on the susceptibility of the welded HSLA steel to hydrogen-induced cracking and sulfide stress cracking. Mater Sci Eng 507:167–173
Kim SJ, Jung HG, Kim KY (2012) Effect of post-weld heat treatment on hydrogen assisted cracking behavior of high strength process pipe steel in a sour environment. Scripta Mater 67:895–898
Kim YH, Morris JW (1983) Metall Trans A 14:1883–1888
Z3113 J. (1975) Method for measurement of hydrogen evolved from deposited metal. Japan
Liao CM, Lee JL (1994) Corrosion 50
Nayak SS et al (2008) Microstructure and properties of low manganese and niobium containing HIC pipeline steel. Mater Sci Eng 494:456–463
CBMM/NPC (2001). Sour gas resistant pipe steel, Niobium Information No. 18/01. Düsseldorf
Ravi K, Ramaswamy V, Namboodhiri TKG (1990) Hydrogen sulphide resistance of high sulphur microalloyed steels. Mater Sci Eng, a 129:87–97
Dengy W et al (2010) Effect of Ti-enriched carbonitride on microstructure and mechanical properties of X80 pipeline steel. J Mater Sci Technol 26(9):803–809
Tau L, Chan S, Shin C (1996) Hydrogen enhanced fatigue crack propagation of bainitic and tempered martensitic steels. Corros Sci 38(11):2049–2060
Mohseni P (2012) Brittle and Ductile Fracture of X80 Arctic Steel. Norwegian University of Science and Technology, Faculty of Natural Sciences and Technology, Department of Materials Science and Engineering, Trondheim
Hiroshi N, Chikara K, Nobuyuki M (2013) API X80 grade electric resistance welded pipe with excellent low temperature toughness. JFE Technical Report 18
Mishra DK (2014) Thermo-mechanical processing of API-X60 grade pipe line steel. National Institute of Technology, Rourkela
Fraldi M, Guarracino F (2012) An analytical approach to the analysis of inhomogeneous pipes under external pressure. J Appl Math 2012(4):1–14
Braskoro S, Dronkers T, Driel MV (2004) From shallow to deep implications for offshore pipeline design. J Indones Oil Gas Commun
Langhelle MB (2011) Pipelines for development at deep water fields. University of Stavanger, Stavanger
Elso MI (2012) Finite element method studies on the stability behavior of cylindrical shells under axial and radial uniform and non-uniform loads. Department of Mechanical and Process Engineering, Hochschule Niederrhein, Krefeld
Hillenbrand H-G, Graf M, Kalwa C (2001) Development and production of high strength pipeline steels
Kara F, Navarro J, Allwood RL (2010) Effect of thickness variation on collapse pressure of seamless pipes. Ocean Eng 37:998–1006
Fallqvist B (2009) Collapse of thick deepwater pipelines due to hydrostatic pressure. Department of Solid Mechanics Royal Institute of Technology (KTH), Stockholm, Sweden
Ghaffarpour M, Akbari D, Naeeni HM, Ghanbari S (2019) Improvement of the joint quality in the high-frequency induction welding of pipes by edge modification. Weld World 63:1561–1572
Souza APFd et al (2017) Collapse propagation of deep water pipelines. Trondheim, Norway. In: Proceedings of the ASME 2017 36th International Conference on Ocean, Offshore and Arctic Engineering OMAE 2017
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The author sincerely thanks Ms. M. Bouzouni and Mr. E. Gavalas, PhD candidates at the National Technical University of Athens, for their overall support.
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Papaefthymiou, S. (2021). Industrial Pipeline Welding. In: Davim, J.P. (eds) Welding Technology. Materials Forming, Machining and Tribology. Springer, Cham. https://doi.org/10.1007/978-3-030-63986-0_12
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