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Microstructure characterization of W-Cu alloy sheets produced by high temperature and high pressure deformation technique

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Abstract W-Cu alloy sheets were fabricated in this study by multiple high temperature and high pressure (multi-HTHP) deformation technique. Crystalline structures and phase composition of W-Cu alloy sheets were investigated… Click to show full abstract

Abstract W-Cu alloy sheets were fabricated in this study by multiple high temperature and high pressure (multi-HTHP) deformation technique. Crystalline structures and phase composition of W-Cu alloy sheets were investigated by transmission electron microscopy and X-ray diffraction, respectively. Results showed that W-Cu alloys possessed only W and Cu phases without other intermediate phases or solid solution of W and Cu. But shape, size and distribution of the two phases were changed after multi-HTHP deformation. Phase composition was also found without any changes after the multi-HTHP deformation treatments. Additionally, W-Cu alloy sheets with a relative density of 99.97% can be successfully obtained by multi-HTHP techniques. Cu phases are closely surrounded by W particles to form a net-work structure and W particles were also refined during the process of multi-HTHP, as a result, W-Cu alloy sheets with a higher properties in electrical conductivity (Ec) and micro-hardness reach 46.8% IACS and 450 HV, respectively, was obtained.

Keywords: alloy; alloy sheets; high temperature; temperature high; multi hthp; deformation

Journal Title: Materials Letters
Year Published: 2017

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