Sales@cmcmat.com

Advanced Carbon Composites & Fiber Materials

Serving Aerospace, Aviation and Automotive Industries with High-Performance Preforms and Components

What Products do we supply?

We understand that exploring all aspects of our carbon matrix applications can be complex, so we’ve organized everything into easy-to-navigate sections. Use the content directory below to jump straight to the information you’re looking for.

Customized Carbon Matrix applications to Your Projects

At CMCMAT, we’re proud to offer a full range of Carbon Matrix composite customization services. With our advanced facilities and experienced team, we ensure that every client’s needs are met with the highest level of precision and quality. Here’s what we can offer you:

  • Solar Photovoltaic Industry: C/C insulation sleeve, C/C guide tube,C/C heater, ovens etc.
  • Aviation & Aerospace: C/C brake heat pack, Aircraft steel brakes, Rocket Nozzles ect.
  • Automotive: C/C brake discs, C-C/SiC brake discs, brake pads etc.
  • Defense and Military: Ballistic protection, Amor systems ect.
  • Energy Industry: Nuclear reactors require resistance to radiation damage and high temperatures.
  • Marine braking systems: Used in high-performance marine applications for braking systems, ensuring durability and resistance to saltwater corrosion.

Both carbon-carbon composites and carbon-ceramic composites play crucial roles in a wide range of industries, thanks to their outstanding mechanical properties, thermal stability, wear resistance, and lightweight nature. The aerospace, automotive, and defense industries are the primary fields that rely on these composites, but their applications extend across many sectors including energy, industrial, sports, electronics, and marine industries. As demand for high-performance materials continues to grow, the use of these advanced composites will only increase, providing durable, efficient, and innovative solutions to modern challenges

Key Features and Applications of Our Carbon Composite Products and Solutions

carbon fiber preforms for carbon brake discs

2.5D/ 3D Carbon fiber preforms

CMCMAT specializes in manufacturing 2.5D/3D structural preforms, directly fabricated from continuous fibers. By utilizing diverse fiber types, we tailor preform geometries to meet specific requirements. These high-performance preforms serve critical applications across industries such as automotive, aerospace, aviation, and thermal management systems, including: high-temperature resistant components; thermal insulation solutions; brake material blanks; advanced industrial composites.

High density Carbon Carbon Composite

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Aircraft brake heat packs

We offer a range of high-performance braking materials, including carbon-carbon (C/C), carbon-ceramic (C/SiC), and steel-based solutions. Select civil components are CAAC-PMA certified, ensuring compliance with stringent aviation safety standards. Designed for critical thermal management, our brakes deliver consistent performance across mission-critical aerospace and defense platforms, like UAV, civil planes and military jets.

Carbon ceramic brake rotors

The automotive brakes we supplied are mainly carbon ceramic brakes. Carbon ceramic brakes are popular in track and street running. Customers can choose different brake pad compounds for different use.

Customization motorbike carbon ceramic brake rotors

Motorbike brake discs

We also have carbon carbon clucth plates, carbon ceramic motorbike brake rotors, carbon carbon bolts and nuts etc.

Other carbon parts

We have the ability to customize the carbon carbon or carbon ceramic applications based on your detailed requirments.

Here is the video how we develop the carbon carbon or carbon ceramic brake discs

  1. Making carbon fiber preforms from continuous carbon fibers.
  2. Carbonnization the carbon fiber prefroms to carbon carbon composite.
  3. Machining the carbon carbon parts to needed shapes.
  4. Desification or ceramization the machined carbon carbond discs to C/C or C/C-SiC discs.
  5. Test the brake disc on the dyno.
  6. Test the brake disc on track.

Advanced Carbon Composite Solutions for Extreme Environments

CMCMAT is a premier carbon composite supplier specializing in high-performance materials designed for aerospace, defense, and automotive engineering. Our core expertise lies in the development of 3D carbon firber preforms and high-density carbon-carbon (C/C) composites.

Leveraging state-of-the-art CVI (Chemical Vapor Infiltration) and CVD (Chemical Vapor Deposition) processes, we produce materials that maintain exceptional structural integrity at temperatures exceeding 2500°C. Our product portfolio includes aircraft brake carbon carbon heat stacks for commercial and military aviation, as well as high-friction carbon ceramic brake rotors for the automotive racing industry.

As a dedicated supplier, we ensure that every component—from rocket nozzle throats to aircraft wheels and brakes spare parts—meets rigorous ISO quality standards. Whether you are sourcing for high-heat industrial applications or lightweight braking systems, CMCMAT provides the technical excellence required for the most demanding missions.

Answer: In vacuum or inert gas environments, our high-density carbon-carbon composites can withstand temperatures exceeding 2500°C (4532°F) while maintaining mechanical strength.

Answer: We provide aircraft brake carbon carbon heat stacks and steel brake components compatible with major platforms including Boeing, Airbus, and various military transport aircraft.

Answer: Carbon ceramic rotors offer up to 70% weight reduction, zero thermal fade, and significantly longer service life compared to steel, making them ideal for high-performance racing and heavy-duty defense vehicles.

What's the Difference between Carbon Carbon and Carbon Ceramic Composite?

The terms “carbon-carbon” and “carbon ceramic” refer to two distinct types of composite materials commonly used in high-performance applications, including automotive and aerospace industries. Each material has unique properties and uses, especially relevant in contexts like brake systems for cars. Here’s a breakdown of their differences:

Carbon-Carbon

Composition: Carbon-carbon is a composite material consisting of carbon fiber reinforcement in a matrix of graphite. The entire structure is carbon, which is why it is referred to as carbon-carbon.

Properties:

  • High Temperature Resistance: It can withstand extremely high temperatures without losing strength, making it ideal for applications such as aircraft brake systems and space vehicles.
  • Strength and Durability: Offers excellent structural strength and stiffness.
  • Low Thermal Expansion: Exhibits minimal expansion when exposed to high temperatures, maintaining structural integrity.

Applications: Due to its high-cost and complex manufacturing process, it’s typically used in specialized applications such as aerospace (rocket nozzles, heat shields), motorsports, and military.

Carbon Ceramic

Composition: Carbon ceramic materials, or ceramic matrix composites, are made from silicon carbide ceramic reinforced with carbon fibers. They are manufactured through a process that combines carbon fiber with silicon to produce a material that offers the benefits of both ceramic and carbon.

Properties:

  • Thermal Shock Resistance: Exhibits excellent resistance to sudden changes in temperature, which can be crucial in braking systems.
  • Wear Resistance: Provides superior wear resistance compared to traditional materials like iron or steel.
  • Lightweight: Significantly lighter than metals, contributing to improved vehicle efficiency and performance.

Applications: Primarily used in the automotive industry for brake discs and pads in high-performance and luxury vehicles due to their ability to provide superior braking performance with less wear and resistance to high temperatures.

Key Differences

  • Heat Tolerance: Carbon-carbon can handle higher temperatures compared to carbon ceramic.
  • Cost and Manufacturing: Carbon-carbon is more expensive and complex to manufacture.
  • Typical Use Cases: Carbon-carbon is more common in aerospace and racing due to its extreme heat tolerance, while carbon ceramic is widely used in automotive applications for its balance of performance, durability, and cost.

Each type of material offers specific advantages that make it suitable for different applications, particularly where high performance and durability under extreme conditions are required.

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