Microstructure and mechanical properties of Ti matrix composite reinforced with 5 vol.% TiC after various thermo-mechanical treatments

In this work, Ti matrix composite reinforced with 5 vol % TiC ceramic was prepared using in situ technologies, then various microstructures of the composite were obtained after it was treated with thermo-mechanical treatments applied in different temperature ranges with different deformation amplitu...

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Veröffentlicht in:Journal of alloys and compounds 2018-08, Vol.758, p.78-84
Hauptverfasser: Ma, Fengcang, Wang, Chaohu, Liu, Ping, Li, Wei, Liu, Xinkuan, Chen, Xiaohong, Zhang, Ke, Han, Qingyou
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container_start_page 78
container_title Journal of alloys and compounds
container_volume 758
creator Ma, Fengcang
Wang, Chaohu
Liu, Ping
Li, Wei
Liu, Xinkuan
Chen, Xiaohong
Zhang, Ke
Han, Qingyou
description In this work, Ti matrix composite reinforced with 5 vol % TiC ceramic was prepared using in situ technologies, then various microstructures of the composite were obtained after it was treated with thermo-mechanical treatments applied in different temperature ranges with different deformation amplitudes. Widmanstatten, bimodal or fined α laths microstructure was obtained after it was treated by thermo-mechanical treatment performed in β phase field, in α+β phase field or in upper α phase field, respectively. The measured β transfuse temperature of the composite rises about 100 K compared to that of the monolithic matrix alloy, which resulted from the carbon solid solution of the matrix. The results of tensile tests showed that the composite strength was increased after the thermo-mechanical treatment, and the increase may be attributed to the effects of the load transfer from matrix to TiC particles and the refinement of the matrix microstructure. The TEM observation shows that the size of α colonies takes an important role to the equivalent grain size of the matrix, but the size of the thickness of α plates has minor effect on it. •Various microstructures were obtained after treated in different phase fields.•Composite strength is increased in different degrees by this treatment.•The increase may result from load transfer effect and microstructure refinement.•Size of α colony has more significant effect on the strength compared to α lath.
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Widmanstatten, bimodal or fined α laths microstructure was obtained after it was treated by thermo-mechanical treatment performed in β phase field, in α+β phase field or in upper α phase field, respectively. The measured β transfuse temperature of the composite rises about 100 K compared to that of the monolithic matrix alloy, which resulted from the carbon solid solution of the matrix. The results of tensile tests showed that the composite strength was increased after the thermo-mechanical treatment, and the increase may be attributed to the effects of the load transfer from matrix to TiC particles and the refinement of the matrix microstructure. 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subjects Beta phase
Ceramic matrix composites
Ceramics
Deformation
In situ synthesis
Load transfer
Mechanical properties
Mechanical property
Metal matrix composites
Microstructure
Nanocomposites
Solid solutions
Tensile tests
Thermo-mechanical treatment
Thermomechanical treatment
Titanium carbide
Titanium matrix composite
Widmanstatten structure
title Microstructure and mechanical properties of Ti matrix composite reinforced with 5 vol.% TiC after various thermo-mechanical treatments
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