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    RISS 인기검색어

      Corrosion and mechanical behavior of copperniobium Nano-filamentary micro-composites for high performance electrical conductor wire

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      https://www.riss.kr/link?id=E805382

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      Corrosion behavior of heavily drawn bundled Copper-niobium filamentary microcomposite was studied as a function of niobium content to develop the relationship between microstructure and corrosion behavior in aqueous 90% HCl-FeCl_(3) solution, TEM observation revealed that niobium filaments were distributed regularly in copper matrix along the sides of a triangular unit cell in the transverse section and more subgrain boundaries were absorbed at copper/niobium phase boundaries with increasing niobium content. The corrosion potential and rate in aqueous 90% HCI-10% FeC1_(3) Was -680.9mVSHE and 1.179×10^(-5)A/㎠. The corrosion potential and rate decreased as increasing niobium content and FeCl_(3). The yield stress can be described as the sum of the substructure strengthening component due-to elongated grains, subgrains and/or cell, the phase boundary strengthening term associated with the Hall-Petch type interaction between dislocations and phase boundaries and precipitate strengthening component.
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      Corrosion behavior of heavily drawn bundled Copper-niobium filamentary microcomposite was studied as a function of niobium content to develop the relationship between microstructure and corrosion behavior in aqueous 90% HCl-FeCl_(3) solution, TEM obse...

      Corrosion behavior of heavily drawn bundled Copper-niobium filamentary microcomposite was studied as a function of niobium content to develop the relationship between microstructure and corrosion behavior in aqueous 90% HCl-FeCl_(3) solution, TEM observation revealed that niobium filaments were distributed regularly in copper matrix along the sides of a triangular unit cell in the transverse section and more subgrain boundaries were absorbed at copper/niobium phase boundaries with increasing niobium content. The corrosion potential and rate in aqueous 90% HCI-10% FeC1_(3) Was -680.9mVSHE and 1.179×10^(-5)A/㎠. The corrosion potential and rate decreased as increasing niobium content and FeCl_(3). The yield stress can be described as the sum of the substructure strengthening component due-to elongated grains, subgrains and/or cell, the phase boundary strengthening term associated with the Hall-Petch type interaction between dislocations and phase boundaries and precipitate strengthening component.

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      목차 (Table of Contents)

      • 1. Introduction
      • 2. Experimental Methods
      • 3. Results and Discussion
      • 4. Summary
      • REFERENCES
      • 1. Introduction
      • 2. Experimental Methods
      • 3. Results and Discussion
      • 4. Summary
      • REFERENCES
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