Ceramic Composite Powder - Guangdong Hico New Materials
Key Indicators
Key performance parameters of ceramic composite powder
450°C
Low-Temp Ceramifying
Far below traditional sintering
6 Types
Composite Raw Materials
Scientific ratio & synergistic effect
2 Series
Modification Series
Composite + Single modification
4 Models
Selected Models
Covering solid & liquid states
Four Core Advantages
450°C low-temperature ceramifying, fire-resistant, mature application in silicone rubber and polyolefin systems
01
🔥
450°C Low-Temp Ceramifying
Achieves low-temperature ceramifying at 450°C, forming a dense ceramic shell layer far below traditional ceramic sintering temperatures. Energy-efficient and suitable for fire-resistant cables, electronic packaging, and other applications requiring low-temperature ceramifying.
02
🛡
Fire Resistance
Possesses specific fire resistance properties. Under high temperature or fire conditions, it rapidly forms a ceramified protective layer that effectively prevents flame propagation and heat transfer, meeting strict standards for wires and cables, building fire protection, and other fields.
03
🧊
Good Thermal Insulation
The shell layer formed after ceramifying provides excellent thermal insulation, effectively blocking high-temperature heat conduction and providing a reliable thermal barrier for protected materials, ensuring safe operation of circuits and equipment in extreme environments.
04
🔧
System Compatibility
Maturely applied in both silicone rubber and polyolefin systems, with extensive experience in ceramifying silicone rubber fire-resistant cables and ceramifying polyolefin. Professional technical support and formulation optimization solutions are available.
Post-Ceramification Advantages
Comprehensive protection from the ceramic shell formed under high temperature/fire conditions

🔥 Ceramification Principle

Ceramic composite powder is made by compounding aluminum hydroxide, flame retardant, wollastonite, zirconia, lithium ceramic stone, low melting point glass powder, and other raw materials through scientific proportioning. At room temperature, it is added as a functional filler to silicone rubber or polyolefin systems. When exposed to high temperature or fire, the low melting point glass powder melts first to form a liquid phase, promoting ceramification reactions between components, forming a dense and hard ceramic protective shell at 450°C.

🧱
Dense Ceramic Shell
Forms a dense, hard ceramic protective shell at 450°C with complete structure
🛡
Fire Resistant, No Melting
Ceramic body does not melt or drip, effectively preventing flame propagation
🧊
Thermal Barrier
Ceramic shell effectively blocks high-temperature heat conduction, protecting circuits and equipment
Circuit Protection
Maintains circuit integrity, keeping power on under fire conditions
🔧
System Compatible
Good processability at room temperature, compatible with silicone rubber and polyolefin systems
Two Modification Series
Composite modification & single modification series for different application needs

📖 Ceramification Principle

Ceramic composite powder is a ceramifying fireproof functional powder made by compounding aluminum hydroxide, flame retardant, wollastonite, zirconia, lithium ceramic stone, low melting point glass powder, and other raw materials through scientific proportioning. At room temperature, it serves as a functional filler in silicone rubber or polyolefin systems. When exposed to high temperature or fire, the low melting point glass powder melts first, promoting ceramification reactions and forming a dense, hard ceramic protective shell at 450°C.

Ceramification Principle
SERIES 01 Composite Modification
For solid ceramifying silicone rubber
Designed specifically for solid ceramifying silicone rubber systems, with multiple functional powders scientifically compounded for uniform dispersion in the silicone rubber matrix. Features low ceramifying temperature and high shell density, suitable for fire-resistant ceramifying silicone rubber wires and cables.
CFP-3A22 D50: 3.0-5.0µm | Moisture ≤0.5%
CFP-3A22Z D50: 3.0-5.0µm | Moisture ≤0.35%
CFP-3A23 D50: 3.0-5.0µm | Moisture ≤0.35%
Uniform Dispersion
Dense Shell
Low Ceramifying Temp
Silicone Rubber Special
SERIES 02 Single Modification
Suitable for both solid and liquid states
Applicable to solid ceramifying silicone rubber and room-temperature curing liquid ceramic adhesive systems, offering greater flexibility. Requires combination with a flame-retardant system. Widely used in electronic device packaging, fire-resistant coatings, lightweight foam materials, and other fields.
CFP-1Z D50: ≤7.5µm | Moisture ≤0.5%
Solid & Liquid Use
Flexible Application
Electronic Packaging
Fire-Resistant Coatings
Note: The single modification series requires combination with a flame-retardant system. For formulation guidance, please contact our technical team. The above parameters are for reference only; actual values are subject to the factory inspection report.
Technical Parameters
2 series, 4 models, covering solid silicone and liquid ceramic adhesive applications
📊 Composite Modification (For Solid Ceramifying Silicone)
Model No. Hue D50 (µm) D90 (µm) Oil Absorption Value (g/100g) Moisture (%)
CFP-3A22 white 3.0–5.0 16.0–19.0 20–28 ≤0.5
CFP-3A22Z white 3.0–5.0 16.0–19.0 20–28 ≤0.35
CFP-3A23 white 3.0–5.0 16.0–19.0 20–28 ≤0.35
📊 Single Modification (For Solid & Liquid States)
Model No. Hue D50 (µm) D90 (µm) Oil Absorption Value (g/100g) Moisture (%)
CFP-1Z greyish white ≤7.5 ≤28.0 20–28 ≤0.5
⚠ Note: The single modification series requires combination with a flame-retardant system. The above data is for reference only; actual product values are subject to the factory inspection report.
Product Introduction
Ceramic Composite Powder · Ceramifying Fireproof Functional Powder · Low-Temp Ceramifying

Ceramic composite powder (HK-CFP) is a ceramifying fireproof functional powder independently developed by Hico, compounded from aluminum hydroxide, flame retardant, wollastonite, zirconia, lithium ceramic stone, low melting point glass powder, and other raw materials through scientific proportioning.

At room temperature, it is added as a functional filler to silicone rubber or polyolefin systems, providing good processability and dispersibility. When exposed to high temperature or fire, it achieves low-temperature ceramifying at 450°C, forming a dense and hard ceramic shell layer that effectively prevents flame propagation and heat transfer, ensuring circuit and equipment safety.

Widely used in wires and cables, new energy vehicles, and energy storage for fire-resistant ceramifying silicone rubber/polyolefin, electronic device packaging liquid ceramic adhesive, fire-resistant ceramifying coatings, and fire-resistant lightweight foam materials.

Aluminum Hydroxide Flame Retardant Wollastonite Zirconia Lithium Ceramic Stone Low Melting Point Glass Powder
Low-Temp Ceramifying
Ceramifying at 450°C, forming a dense and hard protective shell
Fire Resistant
Forms ceramic shell under high temperature/fire, preventing flame spread
Good Thermal Insulation
Ceramic shell effectively blocks high-temperature heat conduction
System Compatibility
Maturely applied in silicone rubber and polyolefin systems
Multi-Field Applications
Wires and cables, electronic packaging, fire-resistant coatings, foam materials
Flexible Formulation
2 series, 4 models, customizable with technical support
Three Application Areas
Covering wires and cables, new energy vehicles, and energy storage
Wires and Cables
App 01
Wires and Cables
Used in fire-resistant ceramifying silicone rubber wires and cables and ceramifying polyolefin cables. Under fire and high temperature, it forms a dense ceramic shell that protects circuit integrity and maintains power, meeting high fire-resistant standards for building wiring, rail transit, and nuclear power.
New Energy Vehicles
App 02
New Energy Vehicles
In new energy vehicle battery systems, ceramifying composite materials effectively enhance fire safety. Ceramifying silicone rubber high-voltage cables form a ceramic shell during thermal runaway, providing reliable insulation protection and thermal management for battery systems.
Energy Storage
App 03
Energy Storage
Applied in fire-resistant ceramifying silicone rubber cables and potting materials for energy storage systems. Ceramic composite powder significantly improves fire resistance and thermal insulation under high temperatures, providing a safe and reliable fire barrier for energy storage equipment.
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