Non-conventional Strain Glasses

被引:0
|
作者
Wenjia Wang
Yuanchao Ji
Minxia Fang
Xiaobing Ren
机构
[1] State Key Laboratory for Mechanical Behavior of Materials and MOE Key Laboratory for Nonequilibrium Synthesis and Modulation of Condensed Matter,Frontier Institute of Science and Technology
[2] Xi’an Jiaotong University,Center for Functional Materials
[3] National Institute for Materials Science,undefined
来源
关键词
Strain glass; Reentrant glass transition; Spinodal decomposition; High damping; Elinvar;
D O I
暂无
中图分类号
学科分类号
摘要
Strain glass, a short-range strain-ordered state of martensitic/ferroelastic material, has drawn much interest in recent years due to its novel properties unattainable in martensitic materials. So far, typical or conventional strain glasses have been reported to be characterized by nano-sized martensitic domains formed from a homogeneous parent phase matrix. This article reviews the recent progress in “non-conventional strain glass,” which is different from the conventional strain glasses reported so far. We first introduce a “reentrant strain glass,” where strain glass nanodomains are formed from a martensitic phase instead of from a parent phase. The reentrant strain glass can show low modulus and high damping properties over a wide temperature range. The second non-conventional strain glass is a “spinodal strain glass” produced by a spinodal decomposition in its early stage. This unique strain glass is formed from a nanoscale compositionally inhomogeneous parent phase (by spinodal decomposition). The spinodal strain glass demonstrates high-damping Elinvar effect over an ultrawide temperature range. These non-conventional strain glass alloys may have potential for novel applications as new structural–functional materials.
引用
收藏
页码:240 / 251
页数:11
相关论文
共 50 条
  • [31] Evaluation of Conventional and Non-Conventional Pulse Oximeter
    Haleem, M. A.
    Haque, M. Z.
    Azhar, F.
    Muqeet, M. A.
    4TH EUROPEAN CONFERENCE OF THE INTERNATIONAL FEDERATION FOR MEDICAL AND BIOLOGICAL ENGINEERING, 2009, 22 (1-3): : 1100 - 1103
  • [32] Conventional and non-conventional alternatives for ureteral replacement
    Carrion, RE
    Ordorica, R
    Moreira, SG
    Lockhart, J
    JOURNAL OF UROLOGY, 2003, 169 (04): : 103 - 104
  • [33] Non-conventional ceramic pigments
    Tax, Zoltán
    Kotsis, Ildiká
    Horváth, Attila
    Key Engineering Materials, 2001, (213 PART 3) : 2133 - 2136
  • [34] PIM of non-conventional particles
    Barreiros, FM
    Vieira, MT
    CERAMICS INTERNATIONAL, 2006, 32 (03) : 297 - 302
  • [35] Conventional and non-conventional adsorbents for wastewater treatment
    Crini, Gregorio
    Lichtfouse, Eric
    Wilson, Lee D.
    Morin-Crini, Nadia
    ENVIRONMENTAL CHEMISTRY LETTERS, 2019, 17 (01) : 195 - 213
  • [36] Causal models in conventional and non-conventional medicines
    Attena, F
    MEDICAL HYPOTHESES, 1999, 53 (03) : 177 - 183
  • [37] Non-conventional oxidation catalysis
    Lefferts, L
    Seshan, K
    Mojet, B
    van Ommen, J
    CATALYSIS TODAY, 2005, 100 (1-2) : 63 - 69
  • [38] Non-conventional energy sources
    Taylor, R. Eatock
    International Journal of Earth Sciences and Engineering, 2010, 3 (02): : 125 - 141
  • [39] Optics of non-conventional media
    O. M. Arakelyan
    O. S. Eritsyan
    Crystallography Reports, 2014, 59 : 1093 - 1102
  • [40] Non-conventional feed additives
    Piva, A
    JOURNAL OF ANIMAL AND FEED SCIENCES, 1998, 7 : 143 - 154