Silicon Carbide
Your Professional Silicon Carbide manufacturer!
Anyang Sancheng Metallurgical Refractory Co., Ltd, is a large company integrating raw material production and processing, new product research and development, and sales.Our main products include: silicon carbide, metal silicon, silico manganese, silicon slag, silicon ball, ferro silicon carbon, silicon aluminum calcium compound deoxidizer, silicon calcium alloy, silicon aluminum barium calcium, manganese iron, carbon additive, graphite electrode, micro silicon powder, inoculant, silicon barium calcium, etc.We will have a high standard of quality management system throughout the entire production process, strict control of each production process, the establishment of a complete product tracking system to ensure that metallurgical product meets international quality standards.
Why Choose Us
High quality
From raw materials' selecting, smelting, crushing, finished products' testing, packing, to pre-shipment inspecting, every step, Sancheng people are all implementing strict quality control.
Production market
In the domestic market, we have established good business relations with many large enterprises. In the international market, our products have been sold to nearly 100 countries and regions in Southeast Asia, West Asia, Central Asia, Africa, America and Oceania.
Professional team
We have a full set of production equipment, a strong production foundation, two independent laboratories and a metallurgical material testing center composed of senior researchers.
24H online service
We try and respond to all concerns within 24 hours and our teams are always at your disposal in case of any emergencies.
Excellent high-temperature performance
The melting point of silicon carbide products is as high as 2700°C, which can maintain its structural stability and strength in high-temperature environments, so it is widely used in high-temperature molten metals, high-temperature heating furnaces, high-temperature petrochemical and other fields.
Strong corrosion resistance
Silicon carbide has excellent corrosion resistance and can work stably for a long time in acid, alkali and oxidative environments.
High hardness and high strength
Silicon carbide has higher hardness and strength than traditional ceramic materials, so it has good wear resistance and impact resistance.
Excellent thermal conductivity and electrical conductivity
Silicon carbide has high thermal conductivity and excellent electrical conductivity, so it is widely used in the manufacture of high-power electronic components and radiators.
Chemical Composition(%)
|
Model No |
SiC |
F.C. |
Fe2O3 |
|
|
|
≥ |
≤ |
≤ |
|
|
SiC 97 |
97.0 |
1.0 |
1.5 |
|
|
SiC 88-90 |
88.0-90.0 |
3.5 |
2.0 |
|
|
SiC 70B |
70.0 |
3.0 |
3.5 |
|
|
SiC 65B |
65.0 |
3.0 |
3.5 |
|
Specification
|
Brand Name |
SanCheng |
|
Model Number |
Sic98 Sic90 Sic85 Sic80 Sic75 Content can be customized |
|
Application |
Steel making, cast steel and casting |
|
Shape |
Lump , grain , powder |
|
Material |
Silicon Carbide (SiC) |
|
Chemical Composition |
Sic F.C. Fe2O3 |
|
Product name |
Silicon Carbide |
|
Color |
Black |
|
Usage |
Metallurgical deoxidation |
|
Size |
LUMP: 0-10mm;10-30mm ; 30-50mm ; 50-100mm or as client's requirement BRIQUETTE: 50*50mm or as client's requirement POWDER: 100mesh, 200mesh, 240mesh, 300mesh, 325mesh or customized |
|
MOQ |
One Tons |
|
Packing |
25kg bag in a metric ton big bag (or upon request) |
|
Sample |
Free Sample |
Electronics and Semiconductors:
In the electronics and semiconductor industry, silicon carbide is gradually becoming a preferred alternative to traditional silicon. Its high thermal conductivity and high voltage resistance make it an ideal material for manufacturing electronic components that operate at high power, high frequency, and high temperatures. From power amplifiers to RF switches, silicon carbide helps enhance the efficiency and performance of electronic devices.
Abrasives and Cutting Tools
Silicon carbide’s hardness and durability make it an excellent abrasive material, widely used in grinding wheels, sandpapers, and cutting tools. It is particularly effective for cutting and grinding hard materials like stone, glass, and metal.
Electric vehicle industry
Used in power modules and inverters for electric motors. Silicon carbide can operate in high-temperature, high-voltage, and high-frequency environments, improving EV efficiency and reducing energy loss.
Energy Industry
In the energy sector, silicon carbide is used in advanced applications such as gas turbine engines, nuclear energy, and solar power. Its high-temperature stability and chemical inertness enable it to withstand corrosion and thermal stress under extreme conditions, improving energy conversion efficiency.
Ceramic Products
The high hardness and wear resistance of silicon carbide make it highly promising for manufacturing ceramic tools, abrasives, and ceramic bearings. These application areas require materials with excellent wear resistance and corrosion resistance.
Coating Technology
Silicon carbide coatings can provide wear-resistant and corrosion-resistant surface protection, applicable in aerospace, automotive, chemical, and other fields. These coatings protect the substrate material from external environmental and physical damage.
LED Industry
The first set of light-emitting diodes to be produced made use of silicon carbide technology. It was used to manufacture blue, red, and yellow LEDs. LEDs are used in televisions, display boards, and computers.
Silicon carbide production method
Feedstock: The feedstock consists of SiO2 in the form of silica or quartz sand and carbon in the form of powdered coke.
Mixing: The first step is to mix silicon dioxide and carbon in an electric resistance furnace. A graphite rod stands in the center, while other substances surround the core.
Heating: Then, a current is passed through the graphite rods to heat it to high temperatures of about 2200°C.
Finally, a layer of silicon carbide is formed around the rod, and CO emits.
Mixing: Combine coarse silicon carbide, silicon, and plasticizers together.
Machining: Form the blending into a desirable shape.
Heating: Expose these pieces to liquid or vapor silicon at high temperatures, and set them for further polishing.
Based on the Acheson process, the Lely method synthesizes bulk silicon carbide crystals through sublimation. The process can be divided into mixing and heating as well.
Mixing: Powdered silicon and carbon are placed in a graphite crucible.
Heating: The crucible is heated to high temperatures of about 2000°C in a vacuum or inert gas environment.
CVD is a method of producing SiC using a gas-phase reaction. The steps are listed below.
Feedstock: Introduce SiC precursors, such as silicon tetrachloride (SiCl4), into a high-temperature reactor.
Reaction: React the precursors with a carbon-containing gas, such as methane (CH4), to form SiC.
Packaging and Shipping
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