Structure of boundaries in composite materials obtained using explosive loading

被引:12
|
作者
Lysak, V. I. [1 ]
Kuz'min, S. V. [1 ]
Krokhalev, A. V. [1 ]
Grinberg, B. A. [2 ]
机构
[1] Volgograd State Tech Univ, Volgograd 400005, Russia
[2] Russian Acad Sci, Inst Met Phys, Ural Branch, Ekaterinburg 620990, Russia
来源
PHYSICS OF METALS AND METALLOGRAPHY | 2013年 / 114卷 / 11期
关键词
explosive welding; formation of joint; transition zone; interphase boundary; NANOCRYSTALLINE MATERIALS; STABILITY; FILMS;
D O I
10.1134/S0031918X13110069
中图分类号
TF [冶金工业];
学科分类号
0806 ;
摘要
We have presented the results of studying the fine structure of interphase boundaries for a number of composite materials obtained by methods of explosive welding and explosive compacting of powder mixtures. Joints of different metals (titanium-low-carbon steel, copper-tantalum) and metals with refractory carbides (chromium carbide-titanium) have been investigated. Under welding, pairs differed from each other by the type of interaction. It has been found that, in these composites, interphase boundaries exhibit a final thickness on the order of 200 nm, throughout which the composition of the material changes gradually from a composition that corresponds to one of the components of the composite to a composition that corresponds to the second component. It has been shown that the structure of interphase boundaries is complex. With the limited solubility of components along boundaries, two fairly thick crystalline interlayers are detected, the total thickness of which is equal to the total thickness of the boundary; between the interlayers, there is a thin (to 5-7 nm in thickness) interlayer with a crystalline or amorphous structure.
引用
收藏
页码:947 / 952
页数:6
相关论文
共 50 条
  • [21] THE UTILIZATION OF EXPLOSIVE LOADING AS A NONDESTRUCTIVE EVALUATION TOOL IN GEOLOGIC MATERIALS
    FOURNEY, WL
    DICK, RD
    INTERNATIONAL JOURNAL OF SOLIDS AND STRUCTURES, 1995, 32 (17-18) : 2511 - 2522
  • [22] EFFECTS OF EXPLOSIVE LOADING ON STRUCTURE OF A MAGNESIUM SINGLE CRYSTAL
    MA, CH
    MITCHELL, DW
    DAGA, R
    JOURNAL OF APPLIED PHYSICS, 1969, 40 (09) : 3499 - &
  • [23] Highly explosive nanosilicon-based composite materials
    Clément, D
    Diener, J
    Gross, E
    Künzner, N
    Timoshenko, VY
    Kovalev, D
    PHYSICA STATUS SOLIDI A-APPLICATIONS AND MATERIALS SCIENCE, 2005, 202 (08): : 1357 - 1364
  • [24] SPECIFIC CHARACTERISTICS OF THE COMPOSITE MATERIALS USEABLE IN EXPLOSIVE ENVIRONMENTS
    Florea, Carmen
    Trisca-Rusu, Corneliu
    Praporgescu, Gabriel
    REVISTA ROMANA DE MATERIALE-ROMANIAN JOURNAL OF MATERIALS, 2009, 39 (01): : 65 - 73
  • [25] APPLICATION OF EXPLOSIVE WELDING IN MANUFACTURING OF COMPOSITE-MATERIALS
    KOWALEWSKIJ, V
    BELAJEW, W
    SMIRNOW, G
    ZEITSCHRIFT FUR METALLKUNDE, 1979, 70 (02): : 67 - 70
  • [26] Creation of composite materials using carbon colloidal solutions obtained by laser technology
    Kazilin E.E.
    Konkin S.V.
    Sinitsyna O.V.
    Tikhonov A.N.
    Ivanov L.I.
    Yaminskii I.V.
    Inorganic Materials: Applied Research, 2010, 1 (4) : 350 - 352
  • [28] Response of preloaded thin composite panels subjected to underwater explosive loading
    Gauch, Erin
    LeBlanc, James
    Shukla, Arun
    COMPUTERS & STRUCTURES, 2012, 112 : 342 - 353
  • [29] Mobile laboratory "Explosive destruction of natural materials": Investigation of the behavior of ice and limestone under explosive loading
    Orlov, M. Yu
    Orlova, Yu N.
    Tolkachev, V. F.
    XXX INTERNATIONAL CONFERENCE ON INTERACTION OF INTENSE ENERGY FLUXES WITH MATTER (ELBRUS 2015), 2015, 653
  • [30] Anisotropic dynamic damage and fragmentation of rock materials under explosive loading
    Zhang, YQ
    Hao, H
    Lu, Y
    INTERNATIONAL JOURNAL OF ENGINEERING SCIENCE, 2003, 41 (09) : 917 - 929