Evaluation of Tool Performance of Recycle-Type Fe3Al Based Alloy for Pure Cu


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Recycle-type Fe3Al (hereinafter designated as Re-Fe3Al) based alloys reinforced by the carbides of TiC or ZrC were processed by the high frequency induction melting method using a high-carbon Cr steel sludge, Al can scraps and the transition metals of Ti or Zr. The carbides were synthesized by in-situ reaction between the transition metal and carbon in the molten iron aluminum alloy. Vickers hardness values are 309HV0.5 for Re-Fe3Al/TiC alloy, and 473HV0.5 for Re-Fe3Al/ZrC alloy, which are higher than that of P-Fe3Al (preprared from pure-Fe and-Al). The cutting performance of the Re-Fe3Al baed alloys was compared with a High-Speed-Steel (HSS) by cutting tests for pure-Cu extruded bar (C1020) using a lathe under a dry condition. Tool life limit was estimated from frank wear length after the cutting tests of C1020 by finish-machining. Tool life limit of Re-Fe3Al/TiC alloy is more than16 min; P-Fe3Al was 12 min; HSS was 8 min, Re-Fe3Al/ZrC alloy was 7 min at the cutting speed of 100m/min. Also, tool life limit of the Re-Fe3Al/TiC alloy was more than twice times as long as that of the HSS at the cutting speed of 300/min. The relationship between cutting speed and tool life limit clearly indicated that the Re-Fe3Al/TiC alloy was better than the HSS at a higher cutting speed. Therefore, it was concluded that Re-Fe3Al/TiC alloy has excellent cutting tool performance.



Materials Science Forum (Volumes 783-786)

Main Theme:

Edited by:

B. Mishra, M. Ionescu and T. Chandra




T. Itoi et al., "Evaluation of Tool Performance of Recycle-Type Fe3Al Based Alloy for Pure Cu", Materials Science Forum, Vols. 783-786, pp. 1142-1146, 2014

Online since:

May 2014




* - Corresponding Author

[1] Maupin HE, Wilson RD, Hawk JA: Wear. 159 (1992), p.241.

[2] Maupin HE, Wilson RD, Hawk JA: Wear. 162-164 (1993), p.432.

[3] Kim YS, Kim YH, Mater Sci and Eng A. 258 (1998). p.319.

[4] Sharma G, Limaye PK, Sundararaman M, Soni N. L: Material Letters. 61 (2007), p.3345.

[5] Tylczak, Evaluation of the planar array field wear tests under abrasion, presented at The International Conference on Wear of Materials, ASM, 126 (1978).

[6] Blickensderfer R, Laird G: J Test Eval. 16 (1988), p.516.

[7] Yang J, La P, Liu W, Xue Q: Wear. 257 (2004), p.104.

[8] Alman DE, Hawk JA, Tylczak JH, Dogan CP, Wilson RD, Wear 2001; 251: 875.

[9] T. Itoi, S. Mineta, H. Kimura, K. Yoshimi, M. Hirohashi: Intermetallics 18 (2010), p.2169.

[10] T. Itoi, Y. Watanabe, Y. N ishikawa, H. Kimura, K. Yoshimi, M. Hiroahshi: Intermetallics 18 (2010), p.1396.

[11] S. Kobayashi, A. Scheider, S. Zaefferer, G. Frommeyer, D. Raabe: Acta Mat. 53 (2005), p.3961.