Brief: Experience a brief tour of features designed to deliver dependable outcomes. In this video, you'll see a detailed demonstration of our custom-shaped Reaction-Bonded Silicon Carbide Sagger, showcasing its exceptional performance in extreme industrial environments. We'll walk you through its high-temperature stability up to 1380°C, superior thermal shock resistance, and how its custom designs optimize your specific manufacturing processes.
Related Product Features:
Operates continuously at extreme temperatures up to 1380°C without softening or deforming.
Withstands rapid temperature changes and thermal shock without cracking or spalling.
Highly resistant to corrosion from strong acids, alkalis, and oxidizing atmospheres.
Provides high thermal conductivity of 45 W/m*K for faster, more uniform heat distribution.
Custom-designed shapes including U-shaped, arched, or perforated geometries for specific processes.
Offers optional surface treatments like polishing and anti-stick coatings for enhanced performance.
Delivers longer service life, lasting 3-5x longer than graphite and 8-10x longer than alumina-mullite.
Reduces energy consumption by over 20% through efficient heat transfer and distribution.
Faqs:
What is a Reaction-Bonded Silicon Carbide (RBSiC) Sagger?
A Reaction-Bonded Silicon Carbide Sagger is a high-performance refractory container manufactured using advanced reaction-bonded sintering technology. This process fuses high-purity silicon carbide powder with a silicon binder at extreme temperatures, creating a dense, near-net-shape component with minimal shrinkage (≤3%) and exceptional dimensional accuracy for custom geometries.
What temperature range can these saggers withstand?
Our RBSiC saggers can operate continuously at temperatures up to 1380°C without softening or deforming, outperforming graphite (≤1200°C) and alumina-mullite (≤1300°C) for broader application range and higher process temperatures.
How do these saggers compare to graphite and alumina-mullite alternatives?
Our RBSiC saggers last 3-5x longer than graphite crucibles and 8-10x longer than alumina-mullite saggers. They offer superior thermal shock resistance, higher temperature stability, better corrosion resistance, and can reduce energy consumption by over 20% through their high thermal conductivity of 45 W/m*K.
Can these saggers be customized for specific industrial applications?
Yes, we specialize in custom-shaped saggers designed to fit your specific process requirements. We can engineer complex geometries including U-shaped, arched, or perforated designs with optional surface treatments like polishing and anti-stick coatings to enhance performance.