Effect of sintering temperature on the relationship of electrical conductivity and porosity characteristics of carbon ceramic composites
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Experimental research on carbon ceramic composites fabricated from carbon and organoclay had been conducted. Electrical conductivity, specific wear rate, density and porosity, morphology, SEM EDX, and XRD were studied. The higher the content of carbon powder, the higher the electrical conductivity produced. Likewise, the higher the sintering temperature of composite increases the electrical conductivity of carbon ceramic composite. The higher the carbon powder content reduces the composite wear rate. Carbon content can increase the hardness of carbon ceramic composites. Composite density tends to be relatively stable with increasing sintering temperature. Increasing the content of carbon powder has shown to reduce composite density. The composite is getting lighter. The higher the carbon content in the composite increases the percentage of porosity of carbon ceramic composites, but it can still increase the electrical conductivity. Generally, carbon ceramic composites contain macroporous.
Abstract
Experimental research on carbon ceramic composites fabricated from carbon and organoclay had been conducted. Electrical conductivity, specific wear rate, density and porosity, morphology, SEM EDX, and XRD were studied. The higher the content of carbon powder, the higher the electrical conductivity produced. Likewise, the higher the sintering temperature of composite increases the electrical conductivity of carbon ceramic composite. The higher the carbon powder content reduces the composite wear rate. Carbon content can increase the hardness of carbon ceramic composites. Composite density tends to be relatively stable with increasing sintering temperature. Increasing the content of carbon powder has shown to reduce composite density. The composite is getting lighter. The higher the carbon content in the composite increases the percentage of porosity of carbon ceramic composites, but it can still increase the electrical conductivity. Generally, carbon ceramic composites contain macroporous.
참고문헌 (33)
- Štubňa I, , Appl Clay Sci, 153, pp.23~28 (2018)
- Csáki Š, , Appl Clay Sci, 157, pp.19~23 (2018)
- Seok-Hwan Ahn, "The friction and wear characteristics of SiC ceramics heat treated at high temperature", Journal of Ceramic Processing Research, 18(11), pp.767~776 (2017), 청정에너지연구소[DOI]
- Manocha LM, , Mech Adv Mater Struct, 21(3), pp.172~180 (2014)
- He Y, , Adv Appl Ceram Struct, 6753, pp.1~7 (2017)
- Fatai Olufemi Aramide, "Effects of Ifon clay and sintering temperature on the phase evolution and physico-mechanical properties of mullite-carbon ceramic composites", Journal of Ceramic Processing Research, 19(2), pp.87~94 (2018), 청정에너지연구소[DOI]
- Tapasztó O, , Chem Phys Lett, 614, pp.148~150 (2014)
- Menchavez RL, , J Eur Ceram Soc, 34(3), pp.717~729 (2014)
- Maurício C, , J mater res technol, 2(2), pp.88~92 (2013)
- Wang A, , Carbon N Y, 59, pp.76~92 (2013)
- Matovi´c B, , J Asian Ceram Soc jo, 2, pp.117~122 (2014)
- Yates M, , Microporous Mesoporous Mater, 154, pp.87~92 (2012)
- He Y, , Constr Build Mater, 53, pp.131~137 (2014)
- Terzopoulou Z, , Thermochim Acta, 642, pp.67~80 (2016)
- Gumula T, , Ceram Int, 41(6), pp.7381~7386 (2015)
- Amin MS, , Constr Build Mater, 98, pp.237~249 (2015)
- Zou W lie, , Appl Clay Sci, 156, pp.116~125 (2018)
- Trabelsi H, , Appl Clay Sci, 162, pp.57~68 (2018)
- Pardo F, , Appl Clay Sci, 157, pp.158~164 (2018)
- Mymrin V, , Appl Clay Sci, 155, pp.95~102 (2018)
- Han B, , Constr Build Mater, 125, pp.479~489 (2016)
- Zhen Li, "Manufacturing of Ultra-light Ceramsite from Slate Wastes in Shangri-la, China", 한국세라믹학회지, 55(1), pp.36~43 (2018), 한국세라믹학회
- Martín D, , Appl Clay Sci, 161, pp.119~126 (2018)
- Mocciaro A, , Appl Clay Sci, 153, pp.90~94 (2018)
- Agus Edy Pramono, "Engineering of ceramic carbon composites made from coconut coir and organoclay for electrical and thermal conductive properties", Journal of Ceramic Processing Research, 18(10), pp.748~753 (2017), 청정에너지연구소[DOI]
- Pramono AE, , J Mater Sci Eng B, 3(11), pp.700~706 (2013)
- Ondruška J, , Appl Clay Sci, 154, pp.36~42 (2018)
- AL Rashid QA, , Appl Clay Sci, 156, pp.1~10 (2018)
- Kubliha M, , Appl Clay Sci, 149, pp.8~12 (2017)
- Loutou M, , Appl Clay Sci, 150, pp.56~62 (2017)
- B. A. Sakharov, , Clays Clay Miner, 64(3), pp.314~333 (2016)
- Hubadillah SK, , J Asian Ceram Soc, 4(2), pp.164~177 (2016)
- Belmokhtar N, , Appl Clay Sci, 162, pp.1~9 (2018)