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2019 | OriginalPaper | Chapter

13. Prediction of Local Microstructure and Mechanical Properties of Welded Joint Metal with Allowance for Its Thermal Cycle

Author : Victor A. Karkhin

Published in: Thermal Processes in Welding

Publisher: Springer Singapore

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Abstract

The behaviour of a welded joint under external conditions (load, temperature, hostile environment, etc.) depends on the local microstructure and local mechanical properties of all welded joint zones (of the weld, HAZ and base metal). In order to predict the microstructure and properties, it is necessary to know the thermal processes in the welded joint, i.e. to solve the heat conduction problem with allowance for body geometry, boundary conditions, welding conditions, and the thermophysical properties of the metal (Fig. 13.1).

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previous chapter Optimisation of Welding Conditions

Adams, C. (1958). Cooling rates and peak temperatures in fusion welding. Welding Journal, 37(5), 210-s–215-s.

Berkhout, C. F., & van Lent, P. H. (1968). Anwendung von Spitzentemperatur-Abkuhlzeit (STAZ)-Schaubildern beim Schweissen hochfester Stahle. Schweissen und Schneiden, 6, 256–260 (in German).

Buchmayr, B. (1991). Computer in der Werkstoff – und Schweisstechnik. Anwendung von mathematischen Modellen (436 pp.). Duesseldorf: DVS – Verlag (in German).

Buchmayr, B., & Cerjak, H. (1988). Mathematical description of HAZ behaviour of low-alloyed structural steels. In Proceedings of the International Conference on Improved Weldment Control with Special Reference to Computer Technology (pp. 43–51). Vienna.

Degenkoble, J., Uwer, D., & Wegmann, H. (1984). Characterisation of weld thermal cycles with regard to their effect on the mechanical properties of weld joints by the cooling time t_8/5 and its determination (17 pp.). IIW Doc. IX-1336-84.

Devillers, L., Kaplan, D., & Testard, P. (1995). Predicting the microstructures and toughness of weld HAZs. Welding International, 9(2), 128–138.

Frolov, V. V. (Ed.). (1988). Theory of welding processes (559 pp.). Moscow: Vysshaya Shkola (in Russian).

Gliha, V. (2005). The microstructure and properties of materials at the fusion line. Metalurgija, 44(1), 13–18.

Grong, O. (1994). Metallurgical modelling of welding (581 pp.). London: The Institute of Materials.

Karkhin, V. A., Homich, P. N., Ivanov, S. Yu., & Karimi J. (2013a). Prediction of microstructure and mechanical properties of weld metal in hybrid laser-arc welding. In Proceedings of the 7th International Scientific and Technical Conference on Beam Technologies and Laser Application, 18–21 September 2013, (pp. 38–45). St. Petersburg, Russia: St. Petersburg Polytechnic University Publishing.

Karkhin, V. A., Khomich, P. N., Ivanov, S. Yu., Michailov, V. G., & Kah, P. (2013b). Prediction of the microstructure and mechanical properties of metal in welded joints with consideration for real weld geometry. International Institute of Welding. IIW RD305. Rev 3-3/7 (7 pp.).

Karkhin, V. A., Khomich, P. N., Ivanov, S. Yu., & Martikainen, J. (2015a). Prediction of microstructure and mechanical properties of heat affected zone in hybrid laser-arc welding. Welding and Diagnostics, 3, 9–12 (in Russian).

Karkhin, V. A., Homich, P. N., Ivanov, S. Yu., Michailov, V. G., & Panchenko, O. V. (2015b). Prediction of microstructure and mechanical properties of weld metal in hybrid laser-arc welding. Advanced Materials Research, 1120–1121, 1292–1296.

Karkhin, V. A., Khomich, P. N., & Michailov, V. G. (2006). Prediction of microstructure and mechanical properties of weld metal with consideration for real weld geometry. In W. Lucas & V. I. Makhnenko (Eds.), Proceedings of Joint International Conference “Computer Technology in Welding and Manufacturing (16th International Conference) and Information Technologies in Welding and Related Processes (3rd International Conference)” (pp. 162–166). Kiev.

Karkhin, V. A., Mnushkin, O. S., & Petrov, G. L. (1978). An approximate calculation of hydrogen redistribution in welded joints. In Proceedings of Leningrad Polytechnic Institute, No. 364 “Welding Production” (pp. 3–8) (in Russian).

Karkhin, V. A., & Okhapkin, K. A. (2011). Evaluation of the equivalent time of non-isothermal diffusion processes in the heat-affected zone in fusion welding. Welding International, 25(8), 629–632.

Kasatkin, O. G. (1984a). Dependence of ultimate strength and true rupture strength of weld metal on alloying and welding thermal cycle. Automatic Welding, 9, 1–5 (in Russian).

Kasatkin, O. G. (1984b). Dependence of yield strength of weld metal on concentration of alloying elements. Automatic Welding, 8, 11–12 (in Russian).

Kasatkin, O. G. (1984c). Interpolation models for evaluation of phase composition in arc welding of low-alloyed steels. Automatic Welding, 1, 7–11 (in Russian).

Kasatkin, O. G. (1985). Calculation of weld metal resistance to fatigue crack propagation. Automatic Welding, 12, 1–4 (in Russian).

Kasatkin, O. G. (1990). Mathematical modelling of composition-property relationships for welded joints and development of calculation-experimental system for optimisation of main technological factors of welding of low-alloyed structural steels. Doctoral thesis, Kiev: The Paton Welding Institute (in Russian).

Kasatkin, O. G. (2005). Estimation of impact energy of low-alloyed weld metal. Automatic Welding, 1, 57–58 (in Russian).

Kasatkin, O. G., & Mikhoduy, L. I. (1992). Selection of alloying system for welding of low-alloyed high strength steels. Automatic Welding, 5, 19–25 (in Russian).

Kasatkin, O. G., & Seyffarth, P. (1984). Influence of chemical and phase composition of the heat affected zone on its mechanical properties during arc welding of low-alloy steels. Automatic Welding, 2, 5–10 (in Russian).

Kasatkin, O. G., & Seyffarth, P. (1994). Dependence of impact energy of low-alloy and alloy weld metal on its composition and microstructure. Automatic Welding, 3, 52–66 (in Russian).

Kim, D., & Rhee, S. (2003). Optimisation of GMA welding process using the dual response approach. International Journal of Production Research, 41(18), 4505–4515.

Kim, D., Rhee S., & Park H. (2002). Modelling and optimisation of a GMA welding process by genetic algorithm and response surface methodology. International Journal of Production Research, 40(7), 1699–1711.

Kluken, A. O., Ibarra, S., Liu, S., & Olson, D. L. (1992). Use of predictive equations for arctic steel heat affected zone properties. In Proceedings of 11th International Conference on Offshore Mechanics and Arctic Engineering (Vol. A, pp. 1–7). Calgary, Canada, June 1992. Publ. ASME.

Kumar, A., Zhang, W., Kim, C.-H., & DebRoy, T. (2005). A smart bi-directional model of heat transfer and free surface flow in gas metal arc fillet welding for practicing engineers. In H. Cerjak, H. K. D. H. Bhadeshia, & E. Kozeschnik (Eds.), Mathematical modelling of weld phenomena (Vol. 7, pp. 3–37). Graz: Verlag der Technischen Universitaet Graz.

Martikainen, J., Hiltunen, E., Brhane, F., Karkhin, V., & Ivanov, S. (2011). Prediction of liquation crack initiation in Al-Mg-Si alloys welded joints. In J. Lippold, T. Boellinghaus, & C. E. Cross (Eds.), Hot cracking phenomena in welds III (pp. 71–86). Springer.

Martikainen, J., Hiltunen, E., Karkhin, V., & Ivanov, S. (2013a). Numerical analysis of liquation cracking in aluminium alloy welded joints. In C. Sommitsch & N. Enzinger (Eds.), Mathematical modelling of weld phenomena (Vol. 10, pp. 401–411). Graz: Verlag der Technischen Universitaet Graz.

Martikainen, J., Hiltunen, E., Karkhin, V. A., & Ivanov, S. Yu. (2013b). A method for evaluating the liquation cracking susceptibility of welded joints in Al-Mg-Si alloys. Welding International, 2, 139–143.

Michailov, V., Karkhin, V., & Petrov, P. (2016). Principles of welding. St. Petersburg: Polytechnic University Publishing.

Muzhichenko, A. F. (2000). Software for prediction of microstructure and mechanical properties of HAZ metal in welding of structural steels. Automatic Welding, 6, 40–43 (in Russian).

Muzhichenko, A. F., Demchenko, V. F., & Romanenko A. V. (1991). Software for personal computers to calculate thermal processes in welding and surfacing. Automatic Welding, 6, 73–74 (in Russian).

Odanovic, Z., & Nedeljkovic, L. (2001). Numerical modelling of microstructure in heat affected zone of GMA welded HY-100 steel. In H. Cerjak (Ed.), Mathematical modelling of weld phenomena (Vol. 5, pp. 381–392). London: IOM Communications.

Ossenbrink, R., & Michailov, V. (2007). Thermomechanical numerical simulation with the maximum temperature austenisation cooling time model (STAAZ). In H. Cerjak, H. K. D. H. Bhadeshia, & E. Kozeschnik (Eds.), Mathematical modelling of weld phenomena (Vol. 8, pp. 357–372). Graz: Verlag der Technischen Universitaet Graz.

Parshin, S. G. (2011). Use of ultradispersed particles in activating flux to increase productivity of MIG/MAG welding of steels. Welding Production, 6, 28–32 (in Russian).

Parshin, S. G. (2013). Nanostructured and activating materials for arc welding (624 pp.). St. Petersburg: St. Petersburg Polytechnic University Publishing (in Russian).

Petrov, G. L. (1963). Inhomogeneity of weld metal (206 pp.). Leningrad: Sudpromgiz (in Russian).

Petrov, G. L., & Tumarev, A. S. (1977). Theory of welding processes (2nd ed., 392 pp.). Moscow: Vysshaya Shkola Publishing (in Russian).

Radaj, D. (1992). Heat effects of welding. Temperature field, residual stress, distortion (348 pp.). Berlin: Springer.

Seyffarth, P. (1978). Schweiss – ZTU – Schaubilder. Atlas (151 pp.). Rostock: Wilhelm – Pieck – Universitaet, Band 1.; Band 2 (167 pp.) (in German).

Seyffarth, P., & Kassatkin, O. G. (1979). Mathematisch – statistische Beschreibung der Austenitumwandlung in der Waermeeinfusszone. Schweisstechnik. Berlin, 3, 117–119 (in German).

Seyffarth, P., & Kasatkin, O. G. (2002). Calculation models for evaluating mechanical properties of HAZ metal in welding low-alloyed steels. In V. I. Makhnenko (Ed.), Proceedings of International Conference on Mathematical Modelling and Information Technologies in Welding and Related Processes (pp. 103–106). Kiev: Paton Welding Institute Publishing (in Russian).

Seyffarth, P., & Kuscher, G. (1982). Schweiss – ZTU – Schaubilder (233 pp.). Berlin: VEB Verlag Technik (in German).

Seyffarth, P., Meyer, B., & Scharff, A. (1992). Grosser Atlas Schweiss – ZTU – Schaubilder (176 pp.). Duesseldorf: DVS – Verlag (in German).

Shewmon, P. G. (1963). Diffusion in solids (200 pp.). New York: McGraw-Hill Book Co.

Shorshorov, M. H., & Belov, V. V. (1972). Phase transformations and changes of steel properties in welding (220 pp.). Moscow: Nauka (in Russian).

Vasudevan, M., Bhaduri, A. K., & Raj, B. (2007). Genetic algorithm for optimizing the A-TIG welding of austenitic stainless steels. In H. Cerjak, H. K. D. H. Bhadeshia, & E. Kozeschnik (Eds.), Mathematical modelling of weld phenomena (Vol. 8, pp. 23–35). Graz: Verlag der Technischen Universitaet Graz.

Yazovskikh, V. M., & Belenky, V. Ya. (2011a). Thermal processes in surfacing of solid cylinders. Welding and Diagnostics, 3, 27–31 (in Russian).

Yazovskikh, V. M., & Belenky, V. Ya. (2011b). Thermal processes in surfacing of cylindrical solids with strip electrode. Welding Production, 12, 20–24 (in Russian).

Yurioka, N., Ohshita, S., & Tamehiro, H. (1981). Study on carbon equivalents to assess cold cracking tendency and hardness. In Proceedings of International Symposium on Pipeline Welding in the ‘80s, 18 March 1981, (pp. 1–15). Publication of Australian Welding Research Association.

Title: Prediction of Local Microstructure and Mechanical Properties of Welded Joint Metal with Allowance for Its Thermal Cycle
Author: Victor A. Karkhin
Publisher: Springer Singapore
Book: Thermal Processes in Welding
Print ISBN: 978-981-13-5964-4

Electronic ISBN: 978-981-13-5965-1

Copyright Year: 2019
DOI: https://doi.org/10.1007/978-981-13-5965-1_13

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