Correction to:Nano-Micro Lett.(2024)16:57 https://doi.org/10.1007/s40820-023-01288-y.Following publication of the original article[1],the authors reported that the order of the images in Figs.5 and 6 were reversed,the...Correction to:Nano-Micro Lett.(2024)16:57 https://doi.org/10.1007/s40820-023-01288-y.Following publication of the original article[1],the authors reported that the order of the images in Figs.5 and 6 were reversed,the positions of the images needed to be exchanged.Another mistake is that the author inadvertently copied the same image in Fig.2(f)with Fig.2(e).The correct Figs.2,5 and 6 have been provided in this correction.The original article[1]has been updated。展开更多
In-situ tensile tests were conducted on a chemically corroded third-generation single-crystal superalloy DD9 at 980 and 1100℃.The phase transformation in the surface areas during the tensile process was analyzed usin...In-situ tensile tests were conducted on a chemically corroded third-generation single-crystal superalloy DD9 at 980 and 1100℃.The phase transformation in the surface areas during the tensile process was analyzed using field emission scanning electron microscope,energy dispersive X-ray spectroscope,electron probe X-ray microanalysis,and transmission electron microscope.The phase transformation mechanism on the surface and the influence mechanism were studied through observation and dynamic calculation.During tensile tests at elevated temperatures,chemical corrosion promotes the precipitation of topologically close-packed(tcp)μphase andσphase on the alloy surface.Both the precipitation amount and size of these two phases on the surface at 1100℃are greater than those at 980℃.The precipitation of tcp phase on the alloy surface results in the formation of an influence layer on the surface area,and the distribution characteristics of alloying elements are significantly different from those of the substrate.The depth of the influence layer at 1100℃is greater than that at 980℃.The precipitation of tcp phase prompts the phase transition fromγphase toγ′phase around the tcp phase.展开更多
文摘Correction to:Nano-Micro Lett.(2024)16:57 https://doi.org/10.1007/s40820-023-01288-y.Following publication of the original article[1],the authors reported that the order of the images in Figs.5 and 6 were reversed,the positions of the images needed to be exchanged.Another mistake is that the author inadvertently copied the same image in Fig.2(f)with Fig.2(e).The correct Figs.2,5 and 6 have been provided in this correction.The original article[1]has been updated。
文摘In-situ tensile tests were conducted on a chemically corroded third-generation single-crystal superalloy DD9 at 980 and 1100℃.The phase transformation in the surface areas during the tensile process was analyzed using field emission scanning electron microscope,energy dispersive X-ray spectroscope,electron probe X-ray microanalysis,and transmission electron microscope.The phase transformation mechanism on the surface and the influence mechanism were studied through observation and dynamic calculation.During tensile tests at elevated temperatures,chemical corrosion promotes the precipitation of topologically close-packed(tcp)μphase andσphase on the alloy surface.Both the precipitation amount and size of these two phases on the surface at 1100℃are greater than those at 980℃.The precipitation of tcp phase on the alloy surface results in the formation of an influence layer on the surface area,and the distribution characteristics of alloying elements are significantly different from those of the substrate.The depth of the influence layer at 1100℃is greater than that at 980℃.The precipitation of tcp phase prompts the phase transition fromγphase toγ′phase around the tcp phase.
