Preparation of Large-Scale Carbon Fiber Reinforced Carbon Matrix Composites (C-C) by Thermal Gradient Chemical Vapor Infiltration (TGCVI)
Jinyong Lee, Jong Hyun Park
Abstract
Jinyong Lee, Jong Hyun Park
Abstract
In this study, C-C composites brake disks with density of 1.79–1.81 g/cm3 are obtained in single TG-CV1 processing. Density including porosity, microstructure, thermal, mechanical properties are tested, and evaluated that the C-C composites have a uniform properties in the disk radial and thickness directions. Friction-wear tests were carried out and compared with the existing carbon brake C-C materials. Dynamic torque tests reveal that C-C brakes by TG-CVT technique have satisfying braking-wear performance for application.
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In this study, C-C composites brake disks with density of 1.79–1.81 g/cm3 are obtained in single TG-CV1 processing. Density including porosity, microstructure, thermal, mechanical properties are tested, and evaluated that the C-C composites have a uniform properties in the disk radial and thickness directions. Friction-wear tests were carried out and compared with the existing carbon brake C-C materials. Dynamic torque tests reveal that C-C brakes by TG-CVT technique have satisfying braking-wear performance for application.
Key concepts: Reinforced carbon–carbon, Chemical vapor infiltration, Materials science, Composite material, Microstructure, Porosity, Brake, Thermal