Carbon fiber textile equipment weaving carbon fiber production machine factory

Key Features & Advantages

Advanced 3D Braiding Technology

Our machines support 3D four-way, five-way, and seven-way braiding, producing complex structures like T-beams, I-beams, and curved components with exceptional uniformity.

This technology eliminates delamination risks and enhances impact resistance, making it ideal for critical aerospace parts such as rocket nozzles and aircraft wings.

Automated Precision

Equipped with full hydraulic drive systems and PLC-controlled automation, our machines ensure consistent braiding speed (up to 2000 mm/s) and minimal error rates. Real-time monitoring and fault detection systems further optimize efficiency and reduce downtime.

Material Versatility

Process T300 and T700 high-modulus carbon fibers, along with hybrid composites that incorporate glass or aramid fibers. The adjustable tension control accommodates various yarn counts (1K–24K), ensuring compatibility with both small-scale R&D and large-scale production.

Customizable Solutions

Customize the machines to fit your unique requirements:

Multi-axis control customized for complex shapes and detailed designs.
Modular design for easy scalability
Integrated preheating systems for improved resin impregnation

Product Details

Introduction diagram of carbon fiber textile equipment

Detailed Technical Specifications and Industry Comparison Table for Carbon Fiber Braiding Equipment​

I. Core Technical Specifications

Parameter Category
Specific Indicators
Technical Advantages
Braiding Technology
Supports 3D four-way/five-way/seven-way braiding; compatible with flat/curved/variable-section structure braiding
Unique multi-dimensional braiding capability in the industry, capable of producing aerospace-grade complex components (e.g., T-beams, C-columns), with 30% improved mechanical properties of finished products
Number of Spindles
Standard configurations: 2000/4000/6000 spindlesCustomization range: 1000–12,000 spindles (highest customizable specification in the industry)
Spindle density reaches 12 spindles/cm², 50% higher production capacity than traditional equipment (8 spindles/cm²), ideal for large-scale industrial production
Braiding Speed
Determinant: 8–10 cycles/min
Rotary type: 20–30 cycles/minMaximum linear speed: 2000mm/s
The rotary model uses magnetic levitation drive technology, with a speed 66% higher than the industry average (15 cycles/min), shortening the production cycle
Material Compatibility
Applicable fibers: Carbon fiber (T300/T700/M40J), glass fiber, aramid fiber, hybrid fibersYarn specifications: 1K–24K
Compatible with 98% of mainstream fiber materials on the market; tension control system accuracy ±0.5cN, avoiding yarn breakage and fiber damage (industry average ±2cN)
Temperature Control
Oxidation furnace heating length: 1000m (optional 500/1500m)Treatment temperature: 1450–1800°C (±5°C accuracy)
High-temperature uniformity reaches 99.2%, meeting the carbonization process requirements for high-modulus carbon fiber; finished product qualification rate increased by 25% compared to traditional equipment (±15°C fluctuation)
Braiding Size Range
Width: 220–3000mmThickness: 40–100mmMinimum radius of curvature: 50mm (curved braiding)
Covers full-size production capacity from micro-components (e.g., UAV control surfaces) to large-scale parts (e.g., main beams of wind turbine blades)

II. Optional Configurations and Customization Parameters

Configuration Module
Basic Configuration
Upgraded Options
Industry Comparison
Control System
PLC + touchscreen HMI
Industrial-grade PC + digital twin system (real-time process simulation)
Traditional equipment mostly uses relay control; upgraded configuration achieves 0.1ms-level response speed, with 80% improved fault diagnosis efficiency
Drive System
Full hydraulic drive
Electro-hydraulic hybrid drive (30% energy consumption reduction) + servo motor precision positioning
Hydraulic system stability is superior to mainstream pneumatic drive solutions in the industry, with pressure fluctuation ≤0.5% (industry average ≤2%)
Tension Control System
Mechanical spring tensioner
Electromagnetic dynamic tension regulator (supports stepless adjustment of 0.1–50cN)
Electromagnetic solution has a response time <50ms, suitable for high-speed braiding scenarios, avoiding structural defects caused by tension fluctuations
Intelligent Module
Basic fault alarm
AI quality prediction system (defect recognition rate 95%) + MES data integration
Intelligence level 2–3 years ahead of the industry, achieving full-process digitalization from equipment control to factory-level production management

III. Key Industry Parameter Comparison Table

Comparison Item
This Equipment’s Parameters
Industry Average Level
Advantage Explanation
Unit Energy Consumption (kWh/ton)
180–220
280–350
Adopts energy-efficient servo motors + energy recovery system, reducing energy consumption by 30%–40% compared to the industry, compliant with EU CE ERP energy efficiency standards
Finished Product Defect Rate
≤0.8%
3%–5%
Integrated visual inspection system for real-time braiding defect monitoring; defect rate is only 1/5 of the industry, significantly reducing material waste costs
Equipment Footprint
15–30㎡ (modular design)
25–40㎡
Compact layout saves 50% of factory space; supports containerized rapid disassembly and assembly, meeting global factory rapid deployment needs
Maintenance Cycle
5000 hours MTBF
2000–3000 hours
Key components (e.g., spindle bearings) use aerospace-grade lubricants, reducing maintenance costs by 60% compared to traditional equipment
Customization Capability
Supports 95% structural part customization
50%–70%
Owns independently developed CAD/CAM braiding path planning software, capable of quickly generating process parameters based on customer drawings

IV. Parameter Explanations​

  1. Number of Spindles: Directly determines equipment production capacity. The 12,000-spindle model can braid 8 automotive carbon fiber chassis longitudinal beams simultaneously (traditional 6000-spindle models can only braid 4).​
  1. Braiding Speed: The rotary model is suitable for high-speed mass production of simple structures, while the (linear) model focuses on precision processing of complex structures. The dual-mode design covers 90% of application scenarios.​
  1. Temperature Control Accuracy: High-temperature uniformity is a core guarantee for high-modulus carbon fiber performance. The ±5°C accuracy meets NASA aerospace material process standards.​
  1. Intelligent Module: The AI quality prediction system, trained on over 100,000 defect samples, can predict potential quality risks 30 minutes in advance, avoiding batch losses.