Properties of wear rate and electrical conductivity of carbon ceramic composites
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Morphology, electrical conductivity, specific wear rates, and densities of carbon ceramic composites as a result of thedistribution of organic coconut coir powder in the organoclay matrix, and sintering temperature variations had beeninvestigated and studied. The raw material of matrix was tested with XRF and XRD. The higher the content of coconut coirpowder and the pyrolysis sintering temperature, the higher the electrical conductivity of the composite, and the lower thecomposite wear rate. This fabricated carbon ceramic composite is unique, the content of coco fiber powder, which turns intocarbon, decreases the wear rate, increases electrical conductivity, and produces an increasingly lightweight ceramic carboncomposite.
Abstract
Morphology, electrical conductivity, specific wear rates, and densities of carbon ceramic composites as a result of thedistribution of organic coconut coir powder in the organoclay matrix, and sintering temperature variations had beeninvestigated and studied. The raw material of matrix was tested with XRF and XRD. The higher the content of coconut coirpowder and the pyrolysis sintering temperature, the higher the electrical conductivity of the composite, and the lower thecomposite wear rate. This fabricated carbon ceramic composite is unique, the content of coco fiber powder, which turns intocarbon, decreases the wear rate, increases electrical conductivity, and produces an increasingly lightweight ceramic carboncomposite.
참고문헌 (31)
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