Nanoarmor's Next Generation Ceramics
>3000 C
<5% Post Sintering
Excellent
1400-1500 C
Excellent
Excellent
Higher than traditional
carbide ceramics
Versatile Delivery for multiple applications
subtitle here
Safer Nuclear Plants
Shielding Vehicles from Extreme Temperatures
Improve heat resistance and life of high
temperature furnaces
Use in rocket nozzles,
heat exchangers, and combustion chambers
Ground Breaking Performance
using Ultra-High Temperature Ceramics
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Tensile Strength 4.2x
Young's Modulus 12.1x
Loading Percentage 1%
Metal Superalloys
Maximum operating
temperature of ~1500˚C
Not resistant to oxidation
Difficult to homogenously
disperse strengtheners and additives
Material properties are heavily dependent on processing parameters
Thermal expansion mismatch between bulk parts and protection coatings
Carbon Composites
Strict processing requirements that typically require many labor-intensive steps
Not resistant to oxidation
Carbon is an ablative material, meaning it consumes itself as it dissipates energy
Continuous fibers don’t allow for additive manufacturing technologies
Susceptible to material erosion
Traditional Ceramics
Highly brittle, low toughness
Low thermal shock resistance
Difficult to form net-shape parts of intricate geometries
Lower Processing Temperatures, closer net shape, higher performance
Near net-shape pre-sintering, low shrinkage (<5%) post-sintering
Fibers, fillers, and nanostructures are easily dispersed for additional customization and reinforcement
Near theoretical densities (>95%) in single-step process (no reinfiltration or densification required)
Sintering can be performed at ambient pressure and low temperature (<1450˚C)
Can produce graded structures to aid in adhesion to vehicle underbody as a thermal protection coating
