Effects of Solution Temperature on Tensile Properties of a High γ′ Volume Fraction P/M Superalloy
Jian Jia, Yiwen Zhang, Yu Tao, Ting Yan, Hongyan Ji
Abstract
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Jian Jia, Yiwen Zhang, Yu Tao, Ting Yan, Hongyan Ji
Abstract
Open-access reader
To meet the pressing needs concerning the optimization of the performance of powder metallurgy (P/M) superalloys for turbine disc applications, the effects of solution temperature on a novel high γ' volume fraction P/M superalloy FGH 4107 were investigated. The results indicated that the size of the γ' precipitates decreased dramatically as the solution temperature increased from 1160 to 1200 °C. Theoretical calculations showed that the precipitation strengthening played a dominant role in enhancing the strength of the high γ' volume fraction P/M superalloy, and a higher solution temperature was beneficial for the modification of the γ' phase distribution during the following cooling and aging process.
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To meet the pressing needs concerning the optimization of the performance of powder metallurgy (P/M) superalloys for turbine disc applications, the effects of solution temperature on a novel high γ' volume fraction P/M superalloy FGH 4107 were investigated. The results indicated that the size of the γ' precipitates decreased dramatically as the solution temperature increased from 1160 to 1200 °C. Theoretical calculations showed that the precipitation strengthening played a dominant role in enhancing the strength of the high γ' volume fraction P/M superalloy, and a higher solution temperature was beneficial for the modification of the γ' phase distribution during the following cooling and aging process.
Key concepts: Superalloy, Volume fraction, Materials science, Precipitation, Ultimate tensile strength, Metallurgy, Volume (thermodynamics), Phase (matter)