Chemically-vapor-deposited silicon carbide (CVD SiC) was oxidized in carbon dioxide (CO2) at temperatures of 1200-1400 C for times between 100 and 500 hours at several gas flow rates. Oxidation weight gains were monitored by thermogravimetric analysis (TGA) and were found to be very small and independent of temperature. Possible rate limiting kinetic laws are discussed. Oxidation of SiC by CO2 is negligible compared to the rates measured for other oxidants typically found in combustion environments: oxygen and water vapor
Pure coupons of chemically vapor deposited (CVD) SiC were oxidized for 100 h in dry flowing oxygen a...
A mixed control oxidation model was used in Chapter 1 to reevaluate historical assumptions regarding...
The heating of the space vehicle during the re-entry phase and the oxidation of the material surface...
The oxidation kinetics of CVD SiC were monitored by thermogravimetric analysis (TGA) in a 50% H2O/50...
The oxidation kinetics of reaction-sintered silicon carbide has been studied over the temperature ra...
The oxidation behavior of reaction-formed silicon carbide (RFSC) ceramics was investigated in the te...
Oxidation of silicon melt infiltrated SiC/SiC ceramic matrix composites (CMC) was studied in air at ...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Thermal oxidation process of silicon carbide (SiC) has been studied by performing in-situ spectrosco...
Due to their refractory nature and oxidation resistance, Ultra‐High Temperature Ceramic materials, i...
A mixed control oxidation model was used in Chapter 1 to reevaluate historical assumptions regarding...
Pure coupons of chemically vapor deposited (CVD) SiC were oxidized for 100 h in dry flowing oxygen a...
A mixed control oxidation model was used in Chapter 1 to reevaluate historical assumptions regarding...
The heating of the space vehicle during the re-entry phase and the oxidation of the material surface...
The oxidation kinetics of CVD SiC were monitored by thermogravimetric analysis (TGA) in a 50% H2O/50...
The oxidation kinetics of reaction-sintered silicon carbide has been studied over the temperature ra...
The oxidation behavior of reaction-formed silicon carbide (RFSC) ceramics was investigated in the te...
Oxidation of silicon melt infiltrated SiC/SiC ceramic matrix composites (CMC) was studied in air at ...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Silicon carbide can oxidize in two different modes. At high oxygen partial pressure and relatively l...
Thermal oxidation process of silicon carbide (SiC) has been studied by performing in-situ spectrosco...
Due to their refractory nature and oxidation resistance, Ultra‐High Temperature Ceramic materials, i...
A mixed control oxidation model was used in Chapter 1 to reevaluate historical assumptions regarding...
Pure coupons of chemically vapor deposited (CVD) SiC were oxidized for 100 h in dry flowing oxygen a...
A mixed control oxidation model was used in Chapter 1 to reevaluate historical assumptions regarding...
The heating of the space vehicle during the re-entry phase and the oxidation of the material surface...