Evolution of zirconium aluminides upon shock-wave loading

被引：0

作者：

Kozlov, EA ^{[1
]}

Bashlykov, DV

Brodova, IG

Yablonskikh, TI

机构：

[1] Russian Fed Nucl Ctr, Zababakhin All Russia Res Inst Tech Phys, Snezhinsk 456770, Chelyabinsk Obl, Russia

[2] Russian Acad Sci, Ural Div, Inst Met Phys, Ekaterinburg 620041, Russia

来源：

PHYSICS OF METALS AND METALLOGRAPHY | 2005年 / 100卷 / 06期

关键词：

D O I：

暂无

中图分类号：

TF [冶金工业];

学科分类号：

0806 ;

摘要：

Features of structural transformations in balls of an Al-2% Zr alloy that were subjected to explosive loading with a close level of energy input and a significantly different holdup time of the melt have been studied by optical metallography, electron microscopy, and X-ray diffraction analysis. It has been established that metastable zirconium aluminides are formed in the melting zone which have the composition and lattice differing I from the corresponding characteristics of the stable Al3Zr phase and metastable aluminides that are formed upon high-rate crystallization of slightly superheated melts at atmospheric pressure.

引用

页码：586 / 590

页数：5

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[41] RESTORATION IN NICKEL AFTER LOADING BY SHOCK-WAVE 300 KBARS [J].

SIKOROV, VN ;

PERSHIN, SV ;

EPSHTEIN, GN ;

DREMIN, AN .

FIZIKA METALLOV I METALLOVEDENIE, 1972, 33 (05) :1063-&

[42] Shock-wave loading of fullerene60 in ampoules of maintaining [J].

Zhuk, A.Z. ;

Milyavskij, V.V. ;

Bezmel'nitsyn, V.N. ;

Sidorov, V.A. ;

Borodina, T.I. ;

Kulakov, V.I. ;

Nikolaev, R.K. .

Khimicheskaya Fizika, 2002, 21 (08) :11-14

[43] NUMERICAL INVESTIGATION OF THE SPALL FAILURE OF COPPER BY SHOCK-WAVE LOADING [J].

VOLKOV, IA .

COMBUSTION EXPLOSION AND SHOCK WAVES, 1992, 28 (01) :93-100

[44] Numerical investigations of oxides and silicates under shock-wave loading [J].

Maevskii, K. K. .

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[45] Molecular Dynamics Simulation of Shock-Wave Loading of Copper and Titanium [J].

Bolesta, A. V. ;

Fomin, V. M. .

PROCEEDINGS OF THE XXV CONFERENCE ON HIGH-ENERGY PROCESSES IN CONDENSED MATTER (HEPCM 2017), 2017, 1893

[46] Feature in accumulation of microdefects in copper under shock-wave loading [J].

Pavlenko, A. V. ;

Shestakov, A. E. ;

Nurgaleev, A. R. ;

Kazakov, D. N. .

JOURNAL DE PHYSIQUE IV, 2006, 134 :1061-1063

[47] Shock-wave loading of amorphous carbon nitride in recovery ampoules [J].

Zhuk, A.Z. ;

Burdina, K.P. ;

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Kravchenko, O.V. ;

Borodina, T.I. ;

Babaev, V.G. ;

Guseva, M.B. .

Teplofizika Vysokikh Temperatur, 2001, 39 (01) :154-161

[48] Densification of Crystalline Boron Carbide during Shock-Wave Loading [J].

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Golyshev, A. A. ;

Shilov, G. V. .

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[49] Densification of Crystalline Boron Carbide during Shock-Wave Loading [J].

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[50] Compressive fracture of brittle solids under shock-wave loading [J].

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Bless, SJ .

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