logo
Request A Quote |
Home ProductsSilicon Carbide Ceramic

Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance

All Products

Silicon Carbide Ceramic

(37)

Reaction Bonded Silicon Carbide

(17)

Heating Elements

(46)

Silicon Nitride Ceramic

(12)

Aluminum Oxide Ceramic

(39)

Zirconia Oxide Ceramic

(5)

Boron Nitride Ceramic

(4)

Ceramic Powder

(4)
Certification
china Shaanxi KeGu New Material Technology Co., Ltd certification
china Shaanxi KeGu New Material Technology Co., Ltd certification
Customer Reviews
NGK values our long-standing partnership with Shaanxi Kegu. Their SSiC ceramics excel in quality and innovation, driving our mutual success. Here’s to continued collaboration!

—— NGK Thermal Technology Co.,Ltd

At Huike, we take pride in our long-standing partnership with Shaanxi Kegu New Material Technology Co., Ltd., a collaboration rooted in trust, innovation, and shared excellence.Their expertise in SSiC ceramics and reliable solutions have consistently supported our projects.

—— SuzhouHuike Technology Co.,Ltd

We at Keda greatly appreciate our long-standing partnership with Shaanxi Kegu New Material Technology Co., Ltd. Their high-quality SSiC ceramic solutions have been integral to our projects and we look forward to continued collaboration and shared success.

—— Keda Industrial Group Co.,Ltd.

I'm Online Chat Now

Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance

Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance
Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance

Large Image :  Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance

Product Details:
Place of Origin: China
Brand Name: KeGu
Model Number: Customizable
Payment & Shipping Terms:
Price: 200-500 yuan/kg
Packaging Details: Strong wooden box for Global shipping
Payment Terms: L/C,D/A,D/P,T/T,Western Union,MoneyGram
Supply Ability: 2,000 pcs/month
Contact Now

Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance

Description
Material: SiC Composition:SiC: >98%
Color: Black Density: >3.05g/cm3
Max. Service Temp: 1650°C Flexural Strength: 380MPa
Usage: Industry Usage Chemical Composition: Al2O3, SiO2
Sic Content: 85% Maximum Temperature: 1600℃
Characteristics: High Wear Resistance Thermal Expansion Coefficient: 4.0-4.5 × 10^-6 /K
Material Composition: 4%Si >96%Sic Working Temperature: 1650
Advantage: Wear And Abrasion Resistance Purity: 98%
Material: Silicon Carbide Ceramic Acid Alkaline Proof: Excellent
Solubility: Insoluble Open Porosity: <0.1%
Flexural Strength: 350-550 MPa
Highlight:

Silicon Carbide Ceramic Pipe Burners

,

SIC Ceramic Finned Radiant Tubes

,

Silicon Carbide Ceramic Radiant Tubes

Customized Silicon Carbide Ceramic Pipe Burners Finned Radiant Tubes
ZG Industrial supplies high-performance customized silicon carbide ceramic pipe burners and finned radiant tubes. Engineered for extreme conditions, our Si/SiC composite tubes deliver superior heat transfer, exceptional durability, and significant energy savings for industrial heating applications. Available for immediate installation in systems up to 6 inches in diameter.
Key Features & Benefits
  • Superior Material Properties: Excellent wear, oxidation, and corrosion resistance with high-temperature tolerance up to 2450°F (1343°C)
  • Enhanced Heat Transfer: Advanced finned tube design increases surface area for improved heat efficiency and distribution
  • Proven Energy Savings: Achieve up to 20% fuel reduction while maintaining thermal performance
  • Maintenance-Free Operation: Si/SiC recuperative radiant tubes require minimal upkeep
  • Exceptional Durability: Resistant to thermal shock, carburization, creep elongation, vibration, and corrosive atmospheres
Technical Specifications
Heat Flow Capacity 110-125 BTU/in²
Maximum Operating Temperature 2450°F (1343°C)
Available Diameters Up to 6 inches
Configurations Open ends, closed ends (recuperative), and flanged systems
Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance 0
Advanced Technology
Our radiant tubes feature:
  • Thread-shaped fins for optimal flame distribution from burner tip to tube exit
  • Compatibility with all heat treatment processes in gas or electric hardening/tempering furnaces
  • Adaptable design for integration with existing burner systems
Innovative SiC Inserts Technology
The Problem with Traditional Radiant Tubes
In a standard radiant tube, the burner leg releases up to 45% more energy than the exhaust leg. This is because:
  • Burner Leg: Benefits from both radiation and convection heat transfer from the luminous flame.
  • Exhaust Leg: Relies primarily on convection alone, as hot gases have a very low emissivity (~0.05), leading to inefficient heat distribution and wasted energy.
Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance 1
Our Solution: Patented Twisted "Y" Design
ZG Industrial's SpyroCor™ SiC inserts transform this inefficient system. The innovative twisted "Y" design creates a non-turbulent, high-convection flow that maximizes heat radiation.
How It Works & Saves Fuel
Installed in the critical last two-thirds of the exhaust leg, our inserts act as a high-emissivity engine:
  • Dramatically Increases Emissivity: The SiC material boasts an emissivity of 0.95, turning the exhaust leg into a powerful radiant heat source.
  • Balances Heat Transfer: Both radiation and convection are now present throughout the tube, balancing the heat output between the burner and exhaust legs.
  • Delivers Proven Efficiency: This balance allows for a direct reduction of burner input by up to 20% while maintaining the same total energy transfer to your workload.
Customized Silicon Carbide Ceramic Pipe Burners with 1650°C Max Service Temp, 20% Fuel Reduction, and Thermal Shock Resistance 2
Key Benefits at a Glance
20% Fuel Savings: Directly lower operational costs.
Perfectly Uniform Heat Transfer: Eliminates hot and cold spots for improved product quality.
Non-Turbulent Flow: Patented design ensures optimal gas flow and heat release.
Maintains Full Thermal Load: Process temperature and throughput are not compromised.
Applications
  • Hardening and tempering furnaces
  • Industrial heat treatment processes
  • Recuperative burner systems
  • Energy-efficient heating solutions
Why Choose Our SiC Radiant Tubes?
  • 20% reduction in fuel consumption
  • Balanced heat transfer across entire tube length
  • Maintenance-free operation
  • Extended service life in extreme conditions

Tag:

Silicon Carbide Ceramics,

Pressureless Sintered SIC,

SIC Ceramics

Contact Details
Shaanxi KeGu New Material Technology Co., Ltd

Contact Person: Ms. Yuki

Tel: 8615517781293

Send your inquiry directly to us (0 / 3000)

About

Silicon Carbide Ceramic

High-Temperature Resistant SiC Forks with 1650°C Max Service Temp and 3800MPa Flexural Strength for Semiconductor Manufacturing

Customizable Pressureless Sintered SiC Roller 1650°C Heat Resistant for Roller Hearth Kilns

Reaction Bonded Silicon Carbide

Reaction Sintered Silicon Carbide Air Cooling Tubes for High-Temp Industrial Cooling with 1380℃ Max Service Temp and 250MPa Flexural Strength

High-Temperature Stable SiC Burner with Thermal Shock and Corrosion Resistance for Industrial Furnaces

LEAVE MESSAGE

Privacy Policy | China Good Quality Silicon Carbide Ceramic Supplier. © 2025 - 2026 Shaanxi KeGu New Material Technology Co., Ltd. All Rights Reserved.