Heat-Resistant Silicon Carbide Kiln Plate for High-Temperature Environments
The Silicon Carbide Kiln Plate is specifically engineered to offer unparalleled performance in high-temperature industrial applications. With its high mechanical strength, excellent thermal shock resistance, and robust chemical properties, it stands out as a leading choice for industries like ceramics, metallurgy, and chemical processing.
Catalogue No.
AT-SIC-PB141
Material
High-Purity Silicon Carbide (SiC)
Maximum Working Temperature
Can withstand temperatures up to 1600°C for reliable performance in high-heat applications.
Compressive Strength
2500–3000 MPa, providing superior structural integrity under high-pressure conditions.
Chemical Resistance
Highly resistant to corrosion from acids, bases, and aggressive chemicals, ensuring durability in reactive environments.
ADCERAX® Silicon Carbide Kiln Plate is designed to provide exceptional heat resistance and durability for industries that operate under extreme thermal and chemical conditions. Known for its excellent thermal shock resistance and mechanical strength, it is ideal for use in high-temperature environments such as furnaces, kilns, and reactors. Whether used in ceramics, metallurgy, or chemical processing, SiC Kiln Plate ensures reliable performance and long-lasting durability in demanding industrial applications.
Key Benefits of Silicon Carbide Kiln Plate
Maximum Service Temperature: 1600°C Silicon Carbide Kiln Plate can withstand temperatures up to 1600°C, ensuring consistent performance even in the most heat-intensive environments.
Compressive Strength: 2500–3000 MPa With impressive compressive strength, SiC Kiln Plate ensures superior structural integrity, even in high-pressure environments.
Flexural Strength: 350–400 MPa The excellent flexural strength of the kiln plate guarantees reliable performance in furnaces and kilns where heavy loads are common.
Oxidation Resistance It performs well even in high-oxygen environments, preventing degradation and maintaining long-term reliability in demanding conditions.
Corrosion Resistance The material's resistance to corrosion from molten metals and other industrial chemicals ensures durability and longevity, even in the harshest applications.
Technical Specifications of Silicon Carbide Kiln Plate
The Silicon Carbide Kiln Plate is engineered for optimal performance under extreme industrial conditions. Known for its exceptional thermal resistance, durability, and strength, it provides reliable solutions in high-temperature environments, including ceramics, metallurgy, and chemical processing.
Property
Specification
Material Composition
High-Purity Silicon Carbide (≥99.9% SiC)
Density
~3.15 g/cm³
Thermal Conductivity
120–180 W/m·K
Compressive Strength
2500–3000 MPa
Flexural Strength
350–400 MPa
Hardness
Mohs hardness 9.5
Maximum Service Temperature
1600°C
Coefficient of Thermal Expansion (CTE)
4.0–5.0 × 10⁻⁶/°C
Oxidation Resistance
Excellent resistance to high-oxygen environments
Chemical Resistance
Resistant to acids, bases, and molten metals
Thermal Shock Resistance
High resistance to rapid temperature fluctuations
Surface Finish
Smooth or textured, customizable
Durability
Superior wear and corrosion resistance
Mechanical Strength
Suitable for heavy-load applications
Dimensions of Silicon Carbide Kiln Plate
Silicon Carbide Kiln Plate
Item No.
Inches
A(mm)
B(mm)
C(mm)
D(mm)
AT-SIC-PB141
6
165
285
240
φ18
AT-SIC-PB142
6
170
288
238
φ18
AT-SIC-PB143
8
187
363
313
φ18
AT-SIC-PB144
8
195
350
295
φ18
AT-SIC-PB145
8.5
200
370
320
φ18
AT-SIC-PB146
9.5
220
390
335
φ18
AT-SIC-PB147
10
218
406
350
φ18
AT-SIC-PB148
10
230
405
350
φ18
AT-SIC-PB149
10.5
230
410
355
φ18
AT-SIC-PB150
11
230
410
360
φ18
AT-SIC-PB151
12
230
430
400
φ18
AT-SIC-PB152
12.5
230
450
395
φ18
AT-SIC-PB153
15
300
460
470
φ18
Packaging of Silicon Carbide Kiln Plate
Silicon Carbide Kiln Plate is carefully packed to ensure its safety during transit and handling. Each plate is first securely wrapped and then placed in sturdy cardboard boxes, providing protection from external pressure and impacts. The boxes are further reinforced with wooden crates, ensuring that SiC Kiln Plate arrives at its destination in perfect condition.
Solving Industry-Specific Application Challenges with ADCERAX® Silicon Carbide Kiln Plate
The Silicon Carbide Kiln Plate from ADCERAX® is designed to address the specific challenges faced by industries that operate under extreme heat and harsh conditions. Its exceptional durability, thermal shock resistance, and chemical resilience make it the go-to solution for applications in ceramics manufacturing, metallurgy, glass production, battery material processing, and chemical processing.
Ceramic Manufacturing: Optimized for High-Temperature Firing and Sintering
✅Key Advantages
1. Thermal Shock Resistance The Silicon Carbide Kiln Plate can handle rapid temperature changes without cracking, ensuring stable performance in environments where extreme heating and cooling occur. This resistance minimizes the risk of downtime during the firing process.
2. High Mechanical Strength With a flexural strength of 350–400 MPa, the Silicon Carbide Kiln Plate provides exceptional support during high-temperature sintering, maintaining structural integrity even under heavy loads. This reduces the likelihood of plate failure in the furnace.
3. Chemical Resistance The material is highly resistant to corrosive chemicals commonly found in ceramic processing, such as acids and bases, ensuring the kiln plate’s longevity. This helps avoid plate degradation and maintains consistent firing quality.
✅ ️Problem Solved
In a large ceramic manufacturing plant, frequent kiln plate failures were causing production delays and increased maintenance costs due to cracks and chemical corrosion. The introduction of ADCERAX® Silicon Carbide Kiln Plates solved these issues by providing plates that withstood extreme temperature fluctuations without cracking, while also resisting the corrosive effects of chemical agents. This led to a reduction in downtime and maintenance, resulting in improved production efficiency and a noticeable decrease in operational costs over six months.
Metallurgical Industry: Furnace Linings for High-Temperature Metal Processing
✅Key Advantages
1. High-Temperature Endurance The Silicon Carbide Kiln Plate can endure temperatures up to 1600°C, making it ideal for use in high-temperature metal smelting and casting applications. This feature ensures long-term performance without the risk of material failure in extreme heat.
2. Erosion Resistance Silicon Carbide Kiln Plate is highly resistant to the erosion caused by molten metals and slag. Its wear resistance significantly reduces the frequency of replacements, ensuring consistent performance in harsh metal processing environments.
3. Corrosion Resistance The material’s ability to resist chemical attacks from molten metals and high-temperature environments ensures a longer service life. This minimizes downtime and reduces the need for frequent furnace linings replacement in metal treatment processes.
✅ ️Problem Solved
A metallurgical company faced frequent failure of their furnace linings due to the aggressive chemical reactions between the molten metal and conventional kiln plates, leading to frequent downtime and replacement costs. After switching to ADCERAX® Silicon Carbide Kiln Plates, the company saw a significant reduction in the erosion of furnace linings, even under intense molten metal conditions. This led to extended maintenance intervals and improved productivity in their metal casting operations.
Chemical Processing: High-Performance Heat-Resistant Components
✅Key Advantages
1. Oxidation Resistance The Silicon Carbide Kiln Plate is resistant to oxidation in high-oxygen environments, ensuring its stability and longevity in reactors and heat exchangers used in chemical processing. This provides reliable performance in environments where oxidation can quickly degrade other materials.
2. Corrosion Resistance The plate’s exceptional resistance to aggressive chemicals, such as acids and bases commonly found in chemical reactors, ensures long-term durability. It helps maintain the operational integrity of chemical processing systems.
3. High-Temperature Stability With the ability to withstand temperatures of up to 1600°C, Silicon Carbide Kiln Plates maintain their structural integrity in high-temperature reactors, ensuring that the heat treatment processes in chemical plants are not interrupted.
✅ ️Problem Solved
A chemical processing plant was dealing with frequent failures of their heat exchangers and reactors due to the aggressive corrosion from chemicals and high temperatures. The installation of ADCERAX® Silicon Carbide Kiln Plates solved this issue by providing highly durable components that withstood the harsh chemical environment while maintaining high-temperature stability. This led to a reduction in maintenance costs and ensured continuous operation without the need for frequent replacements.
User Guide for Proper Handling and Maintenance of ADCERAX® Silicon Carbide Kiln Plate
To ensure the long-lasting performance and optimal use of Silicon Carbide Kiln Plate, it's essential to follow proper handling, storage, and maintenance guidelines. ADCERAX® Silicon Carbide Kiln Plate is designed to meet the demands of high-temperature and chemically aggressive environments, but it requires careful attention during its usage and storage.
Proper Handling and Transportation
1. Avoid Impact Damage: Always handle Silicon Carbide Kiln Plate with care to prevent sudden impacts, which can lead to cracks or chips.
2. Use Protective Packaging: When transporting the plates, ensure they are securely packaged in their protective containers to minimize movement and potential damage during transit.
3. Lift with Proper Equipment: Use suitable lifting equipment to avoid placing unnecessary strain on the kiln plate during handling.
Storing for Maximum Longevity
1. Store in Dry Conditions: Keep Silicon Carbide Kiln Plate in a dry environment to prevent moisture exposure, which can affect its thermal and mechanical properties.
2. Avoid Direct Sunlight: Prolonged exposure to direct sunlight can lead to thermal expansion, so store the kiln plates away from heat sources.
3. Stack Correctly: When stacking Silicon Carbide Kiln Plate, make sure the plates are aligned and supported evenly to prevent warping or bending under pressure.
Operating SiC Kiln Plate Under High-Temperature Conditions
1. Control Heating and Cooling Rates: Gradually increase or decrease the temperature to prevent thermal shock, which can cause the kiln plate to crack or fail.
2. Monitor Temperature Fluctuations: Ensure the Silicon Carbide Kiln Plate is exposed to consistent temperature levels during operation to avoid damage due to sudden temperature changes.
3. Use in Designated Applications: Always use Silicon Carbide Kiln Plate within the recommended temperature range (up to 1600°C) to ensure optimal performance and durability.
Regular Maintenance and Inspection
1. Inspect for Cracks or Wear: Regularly check Silicon Carbide Kiln Plate for any signs of cracks or wear, especially after extended periods of use in high-temperature environments.
2. Clean After Use: After each use, allow the plate to cool before gently cleaning it with a dry cloth to remove any debris or residue that could affect its performance in future applications.
3. Prevent Chemical Exposure: Ensure that the kiln plate is not exposed to highly reactive chemicals or molten metals beyond the specified resistance limits to maintain its integrity.
Frequently Asked Questions About ADCERAX® Silicon Carbide Kiln Plate: Overcoming Industry Challenges
Q1: How does Silicon Carbide Kiln Plate handle rapid temperature fluctuations in high-temperature environments?
A1: Silicon Carbide Kiln Plate is designed with exceptional thermal shock resistance, making it ideal for environments where rapid heating and cooling are common. This capability helps prevent cracking or damage during quick temperature changes, ensuring long-term performance in industries such as ceramics and metallurgy.
Q2: Can Silicon Carbide Kiln Plate withstand corrosive environments, especially in chemical processing?
A2: Yes, Silicon Carbide Kiln Plate offers outstanding chemical resistance to acids, bases, and aggressive chemicals. This makes it perfect for use in reactors, heat exchangers, and other chemical processing applications, where its ability to resist corrosion greatly extends the plate's operational life.
Q3: What makes Silicon Carbide Kiln Plate suitable for use in high-pressure applications?
A3: The high compressive strength of Silicon Carbide Kiln Plate (2500–3000 MPa) ensures it can withstand the mechanical stresses found in high-pressure environments, such as metal processing and glass manufacturing. This strength prevents deformation, making it a reliable choice for demanding industrial operations.
Q4: How does Silicon Carbide Kiln Plate perform in extreme temperatures up to 1600°C?
A4: Silicon Carbide Kiln Plate is engineered to endure temperatures up to 1600°C without degradation, maintaining its structural integrity in high-heat environments. This makes it ideal for use in applications such as metal smelting and furnace linings, where consistent high-temperature performance is required.
Q5: Can Silicon Carbide Kiln Plate be customized to fit specific industrial applications?
A5: Yes, Silicon Carbide Kiln Plate is available in custom sizes, thicknesses, and surface finishes to meet the specific needs of various industrial applications. This flexibility allows businesses to optimize their operations with plates that perfectly align with their furnace, kiln, or reactor specifications.
Reviews of ADCERAX® Silicon Carbide Kiln Plate: Engineering Solutions for High-Temperature Challenges
⭐️⭐️⭐️⭐️⭐️
“We have been using Silicon Carbide Kiln Plate in our metal processing furnaces for over a year now, and the results have been outstanding. The plate’s resistance to high temperatures and corrosion has significantly reduced downtime in our operations. The durability in molten metal applications has exceeded our expectations, contributing to longer equipment lifespans.” — John Stevens, Senior Materials Engineer, Industrial Metallurgy Group
⭐️⭐️⭐️⭐️⭐️
“After switching to Silicon Carbide Kiln Plate for our ceramic firing processes, we’ve noticed a marked improvement in operational efficiency. The thermal shock resistance ensures we don’t face cracks or failures, even with rapid temperature changes. This reliability has streamlined production, saving both time and cost in repairs.” — Linda Rodriguez, Production Manager, Precision Ceramics Co.
⭐️⭐️⭐️⭐️⭐️
“Silicon Carbide Kiln Plate has proven to be invaluable in our glass production lines. The plates handle extreme heat fluctuations and maintain consistent temperature distribution, allowing for better control of the manufacturing process. We’ve seen fewer interruptions and greater consistency in the quality of our glass products.” — David Harrison, R&D Engineer, Advanced Glass Technologies Ltd.
⭐️⭐️⭐️⭐️⭐️
“We rely on Silicon Carbide Kiln Plate in our reactors and heat exchangers, where chemical resistance is key. The plates’ outstanding corrosion resistance has drastically reduced maintenance costs and improved system reliability. We now operate with confidence, knowing the plates will withstand the harshest chemical environments.” — Sarah Miller, Chemical Process Engineer, HighTech Chemical Solutions
ADCERAX® SiC Kiln Plate can be customized to meet the specific requirements of various industries. Tailored solutions ensure optimal performance and enhanced efficiency for high-temperature and chemically aggressive environments.
Custom Size and Thickness Options
Tailored Dimensions Custom sizes allow for precise fitting into specialized furnace or kiln designs, maximizing efficiency.
Thickness Variations Plates can be adjusted in thickness to meet specific load-bearing and thermal resistance needs.
Surface Treatment and Finish Customization
Polished or Textured Surfaces Different surface finishes optimize heat transfer or reduce friction depending on application requirements.
Coatings and Treatments Optional coatings can be applied to enhance chemical resistance or improve wear resistance in harsh environments.