Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study
<p>Nowadays, various methods are being developed for new composites and nanocomposite compounds. Investigating the properties of nanocomposites and finding their optimal properties can enhance their utility. In this study, the mechanical molecular dynamics method was initially utilized to inve...
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| Format: | Article |
| Language: | English |
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Islamic Azad University-Isfahan (Khorasgan) Branch
2025-04-01
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| Series: | International Journal of Advanced Design and Manufacturing Technology |
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| Online Access: | https://sanad.iau.ir/journal/admt/Article/1123960 |
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| author | mostafa yazdani Aazam Ghassemi Mohamad Shahgholi ali galedari Javad Jafari |
| author_facet | mostafa yazdani Aazam Ghassemi Mohamad Shahgholi ali galedari Javad Jafari |
| author_sort | mostafa yazdani |
| collection | DOAJ |
| description | <p>Nowadays, various methods are being developed for new composites and nanocomposite compounds. Investigating the properties of nanocomposites and finding their optimal properties can enhance their utility. In this study, the mechanical molecular dynamics method was initially utilized to investigate the mechanical properties of an aluminum/carbon (Al/C) nanocomposite. Subsequently, the effect of temperature change, strain rate, and carbon content on the nanocomposite's elastic modulus and ultimate strength were investigated. To simultaneously investigate these three parameters and identify the optimal point for the elastic modulus and ultimate strength the experimental design method for optimization was utilized. The Derringer method was utilized to determine the optimal parameters for the simultaneous optimization of two response variables, i.e., elastic modulus and ultimate strength. The findings reveal that the optimal conditions occur simultaneously at 300 K, strain rate 0.01, and carbon content of 2 %, with an elastic modulus value of 51.046 GPa and an ultimate strength value of 5.1117 GPa. Then, the verification of the proposed optimal condition has been completely done via molecular dynamics simulation.</p> |
| format | Article |
| id | doaj-art-c55c7ef8d48f47b1a8b8c28b3078bcfa |
| institution | Kabale University |
| issn | 2252-0406 2383-4447 |
| language | English |
| publishDate | 2025-04-01 |
| publisher | Islamic Azad University-Isfahan (Khorasgan) Branch |
| record_format | Article |
| series | International Journal of Advanced Design and Manufacturing Technology |
| spelling | doaj-art-c55c7ef8d48f47b1a8b8c28b3078bcfa2025-08-20T03:53:23ZengIslamic Azad University-Isfahan (Khorasgan) BranchInternational Journal of Advanced Design and Manufacturing Technology2252-04062383-44472025-04-011812936Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Studymostafa yazdaniAazam GhassemiMohamad Shahgholiali galedariJavad Jafari<p>Nowadays, various methods are being developed for new composites and nanocomposite compounds. Investigating the properties of nanocomposites and finding their optimal properties can enhance their utility. In this study, the mechanical molecular dynamics method was initially utilized to investigate the mechanical properties of an aluminum/carbon (Al/C) nanocomposite. Subsequently, the effect of temperature change, strain rate, and carbon content on the nanocomposite's elastic modulus and ultimate strength were investigated. To simultaneously investigate these three parameters and identify the optimal point for the elastic modulus and ultimate strength the experimental design method for optimization was utilized. The Derringer method was utilized to determine the optimal parameters for the simultaneous optimization of two response variables, i.e., elastic modulus and ultimate strength. The findings reveal that the optimal conditions occur simultaneously at 300 K, strain rate 0.01, and carbon content of 2 %, with an elastic modulus value of 51.046 GPa and an ultimate strength value of 5.1117 GPa. Then, the verification of the proposed optimal condition has been completely done via molecular dynamics simulation.</p>https://sanad.iau.ir/journal/admt/Article/1123960mechanical properties nanocomposites optimization response surface methodology |
| spellingShingle | mostafa yazdani Aazam Ghassemi Mohamad Shahgholi ali galedari Javad Jafari Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study International Journal of Advanced Design and Manufacturing Technology mechanical properties nanocomposites optimization response surface methodology |
| title | Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study |
| title_full | Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study |
| title_fullStr | Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study |
| title_full_unstemmed | Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study |
| title_short | Optimization of the Mechanical Properties of Al-C Nanocomposite via Response Surface Methodology: A Molecular Dynamics Study |
| title_sort | optimization of the mechanical properties of al c nanocomposite via response surface methodology a molecular dynamics study |
| topic | mechanical properties nanocomposites optimization response surface methodology |
| url | https://sanad.iau.ir/journal/admt/Article/1123960 |
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