Glass formation in binary and ternary Zr based Fe and Ni bearing alloys

被引:0
|
作者
Bhabha Atomic Research Cent, Bombay, India [1 ]
机构
来源
Acta Mater | / 1卷 / 57-67期
关键词
Amorphous materials - Binary alloys - Crystal growth - Crystal microstructure - Crystalline materials - Crystallization - Free energy - Glass transition - Melt spinning - Nucleation - Rapid solidification - Ternary systems;
D O I
暂无
中图分类号
学科分类号
摘要
Rapid solidification of the Zr76Fe24-xNix alloys (x = 0, 4, 8, 12, 16, 20 and 24) by melt spinning under different conditions has yielded fully amorphous as well as partially crystalline ribbons. The partially crystalline ribbons have been found to contain crystal aggregates comprising a core of the β-Zr phase surrounded by peripheral crystals of the Zr3(Fe,Ni) phase in alloys with x2Ni and Zr3(Fe,Ni) crystals have been found to be present in the periphery. The nucleation of the core crystals and the peripheral crystals in the undercooled melt has been examined by considering transient and steady state homogeneous and heterogeneous nucleation. The transient nucleation time and the steady state nucleation rate of crystals have been evaluated. For this purpose, use has been made of molar free energy difference ΔGc between the liquid and the crystalline phases determined from experimentally evaluated quantities. The growth of the crystals in the undercooled melt has been examined taking into account recalescence and heat removal during melt spinning. The glass forming ability of the alloys has been evaluated on the basis of the avoidance of crystallization approach. A comparison has been made between the microstructures of the splat cooled and the melt spun alloys in order to understand the process of solidification and the nature of phase transformation during post solidification cooling.
引用
收藏
相关论文
共 50 条
  • [21] Enthalpies of formation of liquid binary Ni plus (Ti, Zr, and Hf) alloys
    Turchanin, MA
    Belokonenko, IV
    Agraval, PG
    Turchanin, AA
    HIGH TEMPERATURE MATERIALS CHEMISTRY, PTS I AND II, PROCEEDINGS, 2000, 15 : 93 - 97
  • [22] Glass-forming ability and crystallization behavior of some binary and ternary Ni-based glassy alloys
    Louzguine-Luzgin, Dmitri V.
    Louzguina-Luzgina, Larissa V.
    Xie, Guoqiang
    Li, Song
    Zhang, Wei
    Inoue, Akihisa
    Journal of Alloys and Compounds, 2008, 460 (1-2): : 409 - 413
  • [23] Magnetostriction of binary and ternary Fe–Ga alloys
    E. M. Summers
    T. A. Lograsso
    M. Wun-Fogle
    Journal of Materials Science, 2007, 42 : 9582 - 9594
  • [24] Relationship of glass formation ability and eutectics in ternary Ni-Zr-B system
    Sun, WS
    Zhang, HF
    Ding, BZ
    Hu, ZQ
    JOURNAL OF MATERIALS RESEARCH, 2004, 19 (09) : 2523 - 2526
  • [25] Prediction of critical compositions for bulk glass formation in La-based, Cu-based and Zr-based ternary alloys
    Shindo, T
    Waseda, Y
    Inoue, A
    MATERIALS TRANSACTIONS, 2003, 44 (03) : 351 - 357
  • [26] A comparison of structure and properties of binary and ternary rapidly solidified alloys of the Al-Ni-Zr system
    Siutsova, P. A.
    Neumerzhitskaya, E. Yu.
    Shepelevich, V. G.
    JOURNAL OF ALLOYS AND COMPOUNDS, 2009, 479 (1-2) : 161 - 165
  • [27] Structural mechanism of glass forming ability in Zr-based binary alloys
    Li, Ming-fei
    Song, Chanyoung
    Wang, Yi-fu
    Cho, Youngsong
    Zeng, Qiaoshi
    Kim, Jaeyong
    Malomo, Babafemi
    Yang, Liang
    Kim, Deok-Soo
    INTERMETALLICS, 2020, 126
  • [28] Local structure and glass transition in Zr-based binary amorphous alloys
    Ichitsubo, T
    Matsubara, E
    Saida, J
    Chen, HS
    MATERIALS TRANSACTIONS, 2005, 46 (10) : 2282 - 2286
  • [29] Glass forming ability of Zr-based Zr–Cu–Ni–Al–(Ag) alloys
    L. Lyubenova
    V. Rangelova
    M. Spassova
    T. Spassov
    Journal of Thermal Analysis and Calorimetry, 2023, 148 : 3975 - 3980
  • [30] Nano-icosahedral quasicrystalline phase formation from a supercooled liquid state in Zr-Fe-Ni ternary metallic glass
    Saida, J
    Li, CF
    Matsushita, M
    Inoue, A
    APPLIED PHYSICS LETTERS, 2000, 76 (21) : 3037 - 3039