Journals / Avrupa Bilim ve Teknoloji Dergisi / 2021 / Cilt: 0 - Sayı: 25

An Experimental Study of the Effects of Ceramic Composition on theElectrical and Thermal Properties of Al/SiC Composites

Al/SiC Kompozit Malzemelerde Seramik Bileşenin Hacimsel Oranının Elektriksel ve Isıl Özellikler Üzerindeki Etkilerinin Deneysel İncelemesi

Pages
721–726
Publication Date
2022-10-11
DOI
—
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

It was found that electrical resistivity increased with increasing sampletemperature and volume fraction of SiC.

📌 3 Key Takeaways

🎯
Objective & Hypothesis:Al/SiC metal-matrix composites were investigated through Differential Thermal Analysis device as a function of volume fraction ofSiC particles and sample temperature ranging 273 K to 373 K.
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Key Findings & Data:It was found that electrical resistivity increased with increasing sampletemperature and volume fraction of SiC.
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Conclusion & Impact:Thermal conductivity decreased from 120 W/mK to 10W/mK as the volume fraction of SiC increased to 60%.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Domain Parameters

Abstract

Al/SiC metal-matrix composites were investigated through Differential Thermal Analysis device as a function of volume fraction ofSiC particles and sample temperature ranging 273 K to 373 K. It was found that electrical resistivity increased with increasing sampletemperature and volume fraction of SiC. In contrast to electrical resistivity, electrical conductivity decreased with increasing sampletemperature and volume fraction of SiC. Electrical conductivity decreased from 1,8x107 1/ohm.m to 2x106 1/ohm.m as the volumefraction of SiC increased to 60%. On the other hand, thermal conductivity decreased with increasing volume fraction of SiC particles,while being almost insensitive to temperature change between 273 K to 373 K. Thermal conductivity decreased from 120 W/mK to 10W/mK as the volume fraction of SiC increased to 60%.

Özet

Bu çalışmada Al/SiC metal matris kompozit malzemelerde, seramik bileşenin hacimsel değişiminin elektriksel ve ısıl iletkenliküzerindeki etkileri 273K- 373K sıcaklık aralığında, deneysel olarak ile incelenmiştir. Test sonuçlarında, sıcaklığın ve seramikbileşenin hacimsel oranının artmasıyla elektriksel direncin arttığı ve elektriksel iletkenliğin azaldığı görülmüştür. Seramik bileşeninyapı içerisindeki hacimsel oranı %60’a artması ile elektriksel iletkenlik 1,8x107 1/ohm.m değerinden 2x106 1/ohm.m değerinedüşmüştür. Ayrıca metal matris kompozit malzemelerde seramik bileşenin artması ile termal iletkenliği azalmış olup 273 ila 373Karasındaki sıcaklık değişiminin ısıl iletkenlik üzerinde önemli bir etkisi olmamıştır. Seramik bileşenin hacimsel oranının %60’açıkması ile ısıl iletkenlik 120 W/mK değerinden 10 W/mK değerine düşmüştür.

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Cite This Article

AYDIN, M. (2022). An Experimental Study of the Effects of Ceramic Composition on theElectrical and Thermal Properties of Al/SiC Composites. Avrupa Bilim ve Teknoloji Dergisi, Cilt: 0 - Sayı: 25, 721–726. https://ajindex.com/articles/454959

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References (8)

  1. B. Torres, M. Lieblich, J. Ibáñez, & A. Garcı́a-Escorial (2002). Mechanical properties of some PM aluminide and silicide reinforced 2124 aluminium matrix composites. Scripta Materialia, 47(1), 45-49.
  2. Bekir Sadık Ünlü (2008). Investigation of tribological and mechanical properties Al2O3–SiC reinforced Al composites manufactured by casting or P/M method. Materials & Design, 29(10), 2002-2008.
  3. Bevington, R., & Han Kim (1979). Thermophysical Properties of Ag-CdO Composite Materials. IEEE Transactions on Components, Hybrids, and Manufacturing Technology, 2(1), 46-51.
  4. Bowen Xiong, Zhifeng Xu, Qingsong Yan, Baiping Lu, & Changchun Cai (2011). Effects of SiC volume fraction and aluminum particulate size on interfacial reactions in SiC nanoparticulate reinforced aluminum matrix composites. Journal of Alloys and Compounds, 509(4), 1187-1191.
  5. Cem OKUMUS, S., Aslan, S., Karslioglu, R., Gultekin, D., & Akbulut, H. (2012). Thermal Expansion and Thermal Conductivity Behaviors of Al-Si/SiC/graphite Hybrid Metal Matrix Composites (MMCs). Materials Science, 18(4), 341– 346. Evans, A., San Marchi, C., & Mortensen, A. (2003). Metal Matrix Composites in Industry An Introduction and a Survey / by Alexander Evans, Christopher San Marchi, Andreas Mortensen. Springer US: Imprint: Springer Hojoon Yi, Ji Yeon Kim, Hamza Zad Gul, Seungsu Kang, Giheon Kim, Eunji Sim, Hyunjin Ji, Jungwon Kim, Young Chul Choi, Won Seok Kim, & Seong Chu Lim (2020). Wiedemann-Franz law of Cu-coated carbon fiber. Carbon, 162, 339-345.
  6. K Srinivas, M S Bhagyashekar, & B G Darshan (2018). Journal of Polymer & Composites Effect of Fillers on Electrical Conductivity of Epoxy Composites, 6(3). Kahveci, O., Çadirli, E., Arı, M., Tecer, H., & Gündüz, M. (2019). Measurement and Prediction of the Thermal and Electrical Conductivity of Al-Zr Overhead Line Conductors at Elevated Temperatures. Materials Research, 22(1), e20180513. L. Weber, J. Dorn, & A. Mortensen (2003). On the electrical conductivity of metal matrix composites containing high volume fractions of non-conducting inclusions. Acta Materialia, 51(11), 3199-3211.
  7. Lavernia, E., Perez, R., & Zhang, J. (1995). Damping behavior of discontinuously reinforced ai alloy metal-matrix composites. Metallurgical and Materials Transactions A, 26(11), 2803–2818.
  8. Lee, H., Jeon, K., Kim, H., & Hong, S. (2000). Fabrication process and thermal properties of SiCp/Al metal matrix composites for electronic packaging applications. Journal of Materials Science, 35(24), 6231–62