[1] KHAN, Abdul Faheem, et al.Microstructural changes in Hadfield steel. Pakistan journal of applied sciences, 1.3: 317-320,( 2001).
[2] QIAN, Lihe; FENG, Xiaoyong; ZHANG, Fucheng. Deformed microstructure and hardness of Hadfield high manganese steel. Materials transactions, 52.8: 1623-1628, (2011).
[3] TĘCZA, G.; SOBULA, S. Effect of heat treatment on change microstructure of cast high-manganese hadfield steel with elevated chromium content. Archives of Foundry Engineering, 14, (2014).
[4] PRIBULOVA, Alena; BABIC, Jozef; BARICOVA, Dana. Influence of hadfield’s steel chemical composition on its mechanical properties. Chem. Listy, 105: 430-432, (2011).
[5] SRIVASTAVA, Ashok Kumar; DAS, Karabi. Microstructural characterization of Hadfield austenitic manganese steel. Journal of Materials Science, 43.16: 5654-5658, (2008).
[6] ZHENG, Chengsi, et al. Tailoring mechanical behavior of a fine-grained metastable austenitic stainless steel by pre-straining. Materials Science and Engineering: A, 746: 332-340, (2019).
[7] HOSSEINI, Shabnam; LIMOOEI, Mohammad Bagher. Optimization of heat treatment to obtain desired mechanical properties of high carbon Hadfield steels. World applied sciences journal, 15.10: 1421-1424, (2011).
[8] XIONG, Renlong, et al. Effect of stacking fault energy on work hardening behaviors in Fe–Mn–Si–C high manganese steels by varying silicon and carbon contents. Materials & Design, 85: 707-714, (2015).
[9] CHEN, C., et al. A study on aging carbide precipitation behavior of hadfield steel by dynamic elastic modulus. Materials Science and Engineering: A, 677: 446-452, (2016).
[10] DODD, John. Recent developments in abrasion resistant high chromium-molybdenum irons, low-alloy manganese steels and alloyed nodular irons of importance in the extraction and utilization of energy resources. Journal of Materials for Energy Systems, 2.2: 65-76, (1980).
[11CUNAT, Pierre-Jean. Alloying elements in stainless steel and other chromium-containing alloys. ICDA, Paris, (2004).
[12] NAKAJIMA, Kenichi, et al. Simultaneous material flow analysis of nickel, chromium, and molybdenum used in alloy steel by means of input–output analysis. Environmental science & technology, 47.9: 4653-4660, (2013).
[13] LENCINA, Rodrigo, et al. Assessing wear performance of two high-carbon Hadfield steels through field tests in the mining industry. Procedia Materials Science, 9: 358-366, (2015).
[14] AGUNSOYE, J. O., et al. Wear of Hadfield austenitic manganese steel casting. In: ICF12, Ottawa (2009).
[15] ZAMBRANO, O. A., et al. Hot deformation of a Fe-Mn-Al-C steel susceptible of κ-carbide precipitation. Materials Science and Engineering: A, 689: 269-285, (2017).
[16] KIM, Hoyoung, et al. Evolution of carbides in cold-work tool steels. Materials Characterization, 107: 376-385, (2015).