References
- Harvey LDD. Iron and steel recycling: review, conceptual model, irreducible mining requirements, and energy implications. Renewable Sustainable Energy Rev. 2021;138(C):110553.
- Broadbent C. Steel’s recyclability: demonstrating the benefits of recycling steel to achieve a circular economy. Int J Life Cycle Assess. 2016;21(11):1658–1665.
- Damgaard A, Larsen AW, Christensen TH. Recycling of metals: accounting of greenhouse gases and global warming contributions. Waste Manag Res. 2009;27(8):773–780.
- Noro K, Takeuchi M, Mizukami Y. Necessity of scrap reclamation technologies and present conditions of technical development. ISIJ Int. 1997;37(3):198–206.
- An R, Yu B, Li R, et al. Potential of energy savings and CO2 emission reduction in China’s iron and steel industry. Appl Energy. 2018;226:862–880.
- Björkman B, Samuelsson C. Recycling of steel. In: Ernst Worrell, Markus A. Reuter, editors. Handbook of recycling. Boston: Elsevier; 2014. p. 63–83.
- Dworak S, Rechberger H, Fellner J. How will tramp elements affect future steel recycling in Europe? -A dynamic material flow model for steel in the EU-28 for the period 1910 to 2050. Resour Conserv Recycl. 2022;179:106072.
- Daigo I, Tajima K, Hayashi H, et al. Potential influences of impurities on properties of recycled carbon steel. ISIJ Int. 2021;61(1):498–505.
- Panasiuk D, Daigo I, Hoshino T, et al. International comparison of impurities mixing and accumulation in steel scrap. J Ind Ecol. 2022.
- Kapoor I, Davis C, Li Z. Effects of residual elements during the casting process of steel production: a critical review. Ironmak Steelmak. 2021;48(6):712–727.
- Spooner S, Davis C, Li Z. Modelling the cumulative effect of scrap usage within a circular UK steel industry - residual element aggregation. Ironmak Steelmak. 2020;47(10):1100–1113.
- Miranda AM, Assis PS, Brooks GA, et al. Monitoring of less-common residual elements in scrap feeds for EAF steelmaking. Ironmak Steelmak. 2019;46(7):598–608.
- Savov L, Volkova E, Janke D. Copper and tin in steel scrap recycling. Mater Geoenvironment. 2003;50(3):627–640.
- Stephenson ET. Effect of recycling on residuals, processing, and properties of carbon and low-alloy steels. Metall TransA. 1983;14A(3):343–353.
- Jackson WJ, Southall DM. Effect of copper and tin in residual amounts on the mechanical properties of 1.5Mn-Mo cast steel. Metals Technol. 1978;5(1):381–390.
- Duan JQ, Farrugia D, Davis C, et al. Effect of impurities on the microstructure and mechanical properties of a low carbon steel. Ironmak Steelmak. 2021: 1–7.
- Stephenson ET. The effect of tin on the toughness of some common steels. Metall Trans A. 1980;11(3):517–524.
- Zhang X, Ma GJ, Liu MK, et al. Removal of residual element tin in the ferrous metallurgy process: a review. Metals. 2019;9(8):834.
- Jiang JX, Wu HB, Liang JM, et al. Microstructural characterization and impact toughness of a jackup rig rack steel treated by intercritical heat treatment. Mater Sci Eng A. 2013;587:359–364.
- Wu SJ, Sun GJ, Ma QS, et al. Influence of QLT treatment on microstructure and mechanical properties of a high nickel steel. J Mater Process Technol. 2013;213(1):120–128.
- Woodford DA, Stepien RW. Control of temper embrittlement in Ni-Cr-Mo-V steel by combining intercritical and low temperature austenitizing heat treatments. Metall Trans A. 1980;11(12):1951–1963.
- Ücisik AH, McMahon CJ, Feng HC. The influence of intercritical heat treatment on the temper embrittlement susceptibility of a P-doped Ni-Cr steel. Metall Trans A. 1978;9 A(3):321–329.
- Ücisik AH, Mcmahon CJ, Feng HC. The influence of intercritical heat treatment on the temper embrittlement susceptibility of an Sb-doped Ni-Cr steel. Metall Trans A. 1978;9(4):604–606.
- Wada T, Hagel WC. Effect of trace elements, molybdenum, and intercritical heat treatment on temper embrittlement of 2-1/4Cr-1Mo steel. Metall Trans A. 1976;7:1419–1426.
- Wada T, Doane DV. The effect of an intercritical heat treatment on temper embrittlement of a Ni-Cr-Mo-V rotor steel. Metall Trans. 1974;5(1):231–239.
- Kadowaki M, Muto I, Katayama H, et al. Effectiveness of an intercritical heat-treatment on localized corrosion resistance at the microstructural boundaries of medium-carbon steels. Corros Sci. 2019;154:159–177.
- Li J, Tan Z, Zhang M, et al. Effect of intercritical austenitizing temperature during quenching-intercritical quenching-tempering process on toughness of 25Mn2Si2Cr bainitic steel. Steel Res Int. 2019;90(6):1800573.
- Huang KY, Tang MH, Hu SK. Inhibition of high-temperature temper brittleness of 25MnV steel by subcritical quenching. Heat Treat Met. 2012;37(07):83–85.
- Mimura H, Obata T. Effect of intercritical heat treatment on toughness in structural steels. J High Press Inst Jpn. 1998;36(5):301–307.
- Zhuang HL. The effect of intercritical heat treatment(IHT) on the inhibition of temper embrittlement of 25Cr2MoV steel after deep nitriding. Heat Treat Met. 1988;(4):21–26.
- Li A M. Influence of pretreatment process on microstructure and properties of 65Mn steel after subcritical quenching. Appl Mech Mater. 2013;310:55–58.
- Fan Z, Qu J, Zhang K, et al. Effect of initial microstructure on the mechanical properties of an intercritically quenched and tempered HB400 grade heavy plate: HSLA Steels 2015, Microalloying 2015 & Offshore Engineering Steels 2015: Conference Proceedings, 2015[C].
- Makovetskii AN, Mirzaev DA. Influence of initial structure of tube steel on its mechanical properties after quenching from intercritical range. Phys Met Metall. 2014;115(6):617–624.
- Li XH, Shi L, Liu YC, et al. Achieving a desirable combination of mechanical properties in HSLA steel through step quenching. Mater Sci Eng A. 2020;772:138683.
- Chen J, Li CS, Chen LQ, et al. Controlling of reheated quenching temperature of 1000 MPa grade steel plate for hydropower station. Materialwiss Werkstofftech. 2019;50(1):33–43.
- Bag A, Ray KK, Dwarakadasa ES. Influence of martensite content and morphology on tensile and impact properties of high-martensite dual-phase steels. Metall Mater Trans A. 1999;30(5):1193–1202.
- Yu YS, Hu B, Gao ML, et al. Determining role of heterogeneous microstructure in lowering yield ratio and enhancing impact toughness in high-strength low-alloy steel. Int J Miner Metall Mater. 2021;28(5):816–825.
- Wu BB, Wang ZQ, Wang XL, et al. Toughening of martensite matrix in high strength low alloy steel: regulation of variant pairs. Mater Sci Eng A. 2019;759:430–436.
- Fu R, Wang G. The effect of different original structure on mechanical properties of 20SiMnTi steel of the subcritically quenched specimens. Hot Work Technol. 2002;03:29–30.
- Shi L, Yan Z, Liu Y, et al. Improved toughness and ductility in ferrite/acicular ferrite dual-phase steel through intercritical heat treatment. Mater Sci Eng A. 2014;590:7–15.
- Wang T, Zhang P, Wang J, et al. Effect of original structure on strength and toughness of 690MPa grade marine engineering steel after intercritical quenching. Iron Steel. 2020;55(12):72–80.
- Nakada N, Syarif J, Tsuchiyama T, et al. Improvement of strength-ductility balance by copper addition in 9%Ni steels. Mater Sci Eng A. 2004;374(1-2):137–144.
- Yan W, Zhu L, Sha W, et al. Change of tensile behavior of a high-strength low-alloy steel with tempering temperature. Mater Sci Eng A. 2009;517(1-2):369–374.
- Zhang J, Di H, Deng Y, et al. Effect of martensite morphology and volume fraction on strain hardening and fracture behavior of martensite-ferrite dual phase steel. Mater Sci Eng A. 2015;627:230–240.
- Kang J, Wang C, Wang GD. Microstructural characteristics and impact fracture behavior of a high-strength low-alloy steel treated by intercritical heat treatment. Mater Sci Eng A. 2012;553:96–104.
- Kang J. Microstructural control and processing development of 780MPa grade low yield ratio construction steel. Shenyang: Northeastern University; 2012.
- Hu J, Du LX, Wang JJ, et al. Effect of welding heat input on microstructures and toughness in simulated CGHAZ of V-N high strength steel. Mater Sci Eng A. 2013;577:161–168.
- Wei R, Enomoto M, Hadian R, et al. Growth of austenite from as-quenched martensite during intercritical annealing in an Fe-0.1C-3Mn-1.5Si alloy. Acta Mater. 2013;61(2):697–707.
- Das D, Chattopadhyay P P. Influence of martensite morphology on the work-hardening behavior of high strength ferrite-martensite dual-phase steel. J Mater Sci. 2009;44(11):2957–2965.