Mechanical Behavior of Sintered Porous Two-Phase Titanium Nanolaminate-Composites at High Temperatures

Sergiy A. Firstov; Victor F. Gorban; Inna I. Ivanova; Engel P. Pechkovsky

doi:10.4028/www.scientific.net/KEM.409.300

Paper Titles

Corrosion of Alumina Ceramics in an Aqueous Solution of Sodium Chloride
p.283

Fractography of Dense Metal-Like Carbides Sintered with Carbon
p.287

Ceramic Materials for Ballistic Protection
p.291

Crack Profile under Vickers Indents
p.295

Mechanical Behavior of Sintered Porous Two-Phase Titanium Nanolaminate-Composites at High Temperatures
p.300

Failure Investigation of Forming Rolls Made of Si₃N₄
p.304

Comparison of R-Curve Behavior of Si₃N₄ Measured by Indentation Method and Single-Edge V-Notched Beam Technique (SEVNB)
p.308

Investigation of γ-Alon Structural Evolution during Sintering and Hot-Pressing
p.313

Effect of Sintering Time on the Phase Composition in PFN Ceramics Prepared by Sol-Gel Process
p.317

HomeKey Engineering MaterialsKey Engineering Materials Vol. 409Mechanical Behavior of Sintered Porous Two-Phase...

Mechanical Behavior of Sintered Porous Two-Phase Titanium Nanolaminate-Composites at High Temperatures

Abstract:

Regularities, features and mechanisms of deformation and fracture processes of new ceramic materials – porous (=3-35 %) two-phase titanium nanolaminate-composites Ti3SiC2/TiC, Ti3AlC2/TiC, Ti4AlN3/TiN (content of TiC or TiN – 5-70 % vol.) at 20-1300 оС are established. Composites are made by reaction sintering. On increase in mechanical properties and resistance to deformation they settle down in the following sequence: Ti3AlC2/TiC–Ti4AlN3/TiN–Ti3SiC2/TiC. In porous nanolaminate-composites containing less than 20 % TiC the increase in porosity  results in decrease in high-temperature strength pl and increase of plasticity . Appreciable increase of strength of porous composites is marked at content TiC>25-30 % (vol.).

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Periodical:

Key Engineering Materials (Volume 409)

Pages:

300-303

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.409.300

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Online since:

March 2009

Authors:

Sergiy A. Firstov, Victor F. Gorban, Inna I. Ivanova, Engel P. Pechkovsky

Keywords:

Compressive Strength, Fractography, Indentation Strength, Titanium Nanolaminate-Composite

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References

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