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MgZrO3 35NiCr 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 7.5Y2O3 4Polymer Powder, ZrO2 8Y2O3 Powder
MgZrO3 35NiCr 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 7.5Y2O3 4Polymer Powder, ZrO2 8Y2O3 Powder
MgZrO3 35NiCr Powder is a composite of magnesium zirconate and nickel-chromium alloy powders, specially formulated for use as an intermediate thermal spray coating in a three-layer, quasi-graded coating system. This system comprises an underlying bond coat of nickel-chromium alloy, an intermediate layer of MgZrO3 35NiCr, and a top layer of magnesium-zirconate ceramic. The intermediate layer provided by MgZrO3 35NiCr Powder has a coefficient of expansion that acts as a bridge between the metallic bond coat and the ceramic top coat, effectively distributing thermal stresses across the coating system. This results in a robust thermal barrier coating that minimizes spalling and thermal shock effects, ensuring durability and performance in high-temperature environments.
Nominal Chemistry |
MgZrO3 35NiCr |
Nom. Particle Size Distr.(µm) |
-90 +11 |
Morphology |
Angular Blocky Spheroidal |
Max. Service Temperature (°C) |
900 |
Aerospace Turbine Engines: Used in thermal barrier coatings to shield engine components from high temperatures and thermal cycling, thereby enhancing efficiency and extending their lifespan.
Industrial Gas Turbines: Applied in similar thermal barrier coating systems as those used in aerospace, providing durability and thermal protection for power generation turbines.
Heat Exchangers: Utilized to safeguard surfaces in heat exchangers from thermal degradation and improve overall thermal efficiency.
Automotive Exhaust Systems: Employed in coatings for high-performance automotive exhaust systems to endure high temperatures and minimize thermal fatigue.
Industrial Furnaces and Boilers: Used to coat components exposed to extreme heat to prevent thermal shock and spalling, thereby extending their service life.
Our MgZrO3 35NiCr Powder is carefully handled during storage and transportation to preserve the quality of our product in its original condition.
Q1: What are the key advantages of using MgZrO3 35NiCr Powder in thermal barrier coatings?
MgZrO3 35NiCr Powder serves as an intermediate layer in a three-layer coating system, effectively distributing thermal stresses and enhancing resistance to spalling and thermal shock, resulting in durable and high-performance thermal barrier coatings.
Q2: Which industries and applications can benefit from MgZrO3 35NiCr Powder coatings?
Industries such as aerospace, power generation, automotive, and industrial manufacturing can benefit from these coatings. They are applied in turbine engines, heat exchangers, exhaust systems, and industrial furnaces and boilers.
Q3: How does the intermediate layer of MgZrO3 35NiCr Powder enhance thermal barrier coating performance?
The intermediate layer features a coefficient of expansion that bridges the metallic bond coat and the ceramic top coat, effectively distributing thermal stresses and preventing spalling and thermal shock effects, thereby increasing the coating's durability.