

MgZrO3 26Ni 7Cr 2Al Powder provided by Stanford Advanced Materials is used as an intermediate thermal spray coating in a three-layer system, effectively distributing thermal stresses and enhancing resistance to spalling and thermal shock, making it an excellent thermal barrier coating.
Related Products: ZrO2 8Y2O3 Powder, ZrO2 7.5Y2O3 4Polymer Powder, MgZrO3 35NiCr Powder
MgZrO3 26Ni 7Cr 2Al Powder provided by Stanford Advanced Materials is used as an intermediate thermal spray coating in a three-layer system, effectively distributing thermal stresses and enhancing resistance to spalling and thermal shock, making it an excellent thermal barrier coating.
Related Products: ZrO2 8Y2O3 Powder, ZrO2 7.5Y2O3 4Polymer Powder, MgZrO3 35NiCr Powder
MgZrO3 26Ni 7Cr 2Al Powder is a mixture of magnesium zirconate and nickel-chromium-aluminum alloy powders, specifically formulated for use as an intermediate thermal spray coating in a three-layer, quasi-graded coating system. This system consists of a nickel-chromium alloy bond coat at the base and a magnesium-zirconate ceramic top coat. The intermediate layer created by MgZrO3 26Ni 7Cr 2Al Powder features a coefficient of expansion that effectively bridges the metallic bond coat and the ceramic top layer, distributing thermal stresses evenly throughout the coating system. This stress distribution improves resistance to spalling and other thermal shock effects, making it an ideal choice for thermal barrier coatings in high-temperature applications.
Nominal Chemistry |
MgZrO3 26Ni 7Cr 2Al |
Nom. Particle Size Distr.(µm) |
-90 +11 |
Morphology |
Angular Blocky Spheroidal |
Max. Service Temperature (°C) |
900 |
Aerospace Turbine Engines: Utilized in thermal barrier coatings to protect engine components from high temperatures and thermal cycling, enhancing both efficiency and longevity.
Industrial Gas Turbines: Used in thermal barrier coating systems similar to those in aerospace, providing durability and thermal protection for power generation turbines.
Heat Exchangers: Applied to protect surfaces in heat exchangers from thermal degradation, thereby improving overall thermal efficiency.
Automotive Exhaust Systems: Employed in coatings for high-performance automotive exhaust systems to withstand high temperatures and reduce thermal fatigue.
Industrial Furnaces and Boilers: Used to coat components exposed to extreme heat, preventing thermal shock and spalling, thus extending their service life.
Power Generation Equipment: Applied in various components of power generation equipment to enhance thermal efficiency and resistance to thermal shock.
Our MgZrO3 26Ni 7Cr 2Al Powder is carefully handled during storage and transportation to preserve the quality of our product in its original condition.
Q1: What are the main advantages of using MgZrO3 26Ni 7Cr 2Al Powder in thermal barrier coatings?
MgZrO3 26Ni 7Cr 2Al Powder provides an intermediate layer with a coefficient of expansion that bridges the metallic bond coat and ceramic top coat, effectively distributing thermal stresses. This enhances resistance to spalling and improves thermal shock resistance, making it an ideal choice for high-temperature applications.
Q2: How does MgZrO3 26Ni 7Cr 2Al Powder enhance the performance of a three-layer coating system?
As an intermediate layer, MgZrO3 26Ni 7Cr 2Al Powder effectively distributes thermal stresses between the metallic bond coat and the ceramic top coat, preventing spalling and thermal shock effects. This improves the overall durability and efficiency of the coating system.
Q3: What are the specific handling and storage requirements for MgZrO3 26Ni 7Cr 2Al Powder?
MgZrO3 26Ni 7Cr 2Al Powder should be stored in a cool, dry place, away from moisture and contaminants. Proper handling procedures should be followed to ensure safety and preserve the powder's quality.