Scholarlink

MATLAB is a powerful tool for scientific computing, offering seamless integration of computation, representation, and computer programming within an intuitive surrounding. Using well-known mathematical symbols and expressions, users can effectively express and solve complex problems, including calculating phase diagrams. The present work introduces a MATLAB-based approach for constructing collective a tangent between Intersection curves, specifically applied to the Ni–Cu, Ni–Ag, and Cu–Ag phase diagrams. This paper describes the underlying principles and presents a detailed flowchart for implementation, offering a valuable resource for researchers and practitioners in materials science and related fields. The computed melting temperatures for Ni, Cu, and Ag are 1728 K, 1356 K, and 1235 K, respectively, which align well with existing data. Notably, the model identifies the maximum solubility of copper in silver as 14.07%. These results highlight the model's efficacy for predicting phase diagrams in more complex systems, offering valuable materials science and engineering insights.

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Calculation of Ni–Cu, Ni–Ag, and Cu–Ag Phase Diagram Using CALPHAD Method

  • 会议论文

  • 发表日期：

    2025年

查看全文
  • Uttam Kumar Tarai,
  • Swagat Dwibedi,
  • Subhranshu Kumar Singh,
  • Suyog Jhavar

摘要

MATLAB is a powerful tool for scientific computing, offering seamless integration of computation, representation, and computer programming within an intuitive surrounding. Using well-known mathematical symbols and expressions, users can effectively express and solve complex problems, including calculating phase diagrams. The present work introduces a MATLAB-based approach for constructing collective a tangent between Intersection curves, specifically applied to the Ni–Cu, Ni–Ag, and Cu–Ag phase diagrams. This paper describes the underlying principles and presents a detailed flowchart for implementation, offering a valuable resource for researchers and practitioners in materials science and related fields. The computed melting temperatures for Ni, Cu, and Ag are 1728 K, 1356 K, and 1235 K, respectively, which align well with existing data. Notably, the model identifies the maximum solubility of copper in silver as 14.07%. These results highlight the model's efficacy for predicting phase diagrams in more complex systems, offering valuable materials science and engineering insights.