Q1: Carbon fiber sounds high-end, but is the cost prohibitively high? What is its real value compared to

 traditional metals?

A1: Your concerns are very valid. While the initial cost of carbon fiber is indeed higher than that of ordinary 

metals, its value should be measured by its "life-cycle cost." It not only brings lightweighting 

(60%-70% weight reduction), thereby reducing equipment energy consumption and improving speed and 

precision, but also possesses superior fatigue resistance and corrosion resistance, significantly reducing 

maintenance, downtime, and even replacement costs. In many cases, customers have recouped their investment

 within 1-2 years through improved efficiency. We excel at providing you with detailed value analysis (VAVE), 

using data to demonstrate its long-term returns.

Q2: What are the specific data regarding carbon fiber's "lightweight and strong" properties? Can it meet the 

stringent strength requirements of our equipment?

A2: This is precisely where our expertise lies. The specific strength (strength/density) of carbon fiber 

composites is more than 5 times that of steel, and its specific modulus (stiffness/density) is more than 3 times 

that of steel. But more importantly, we don't sell standard products. Each product undergoes layup design 

(scientific fiber arrangement in 0°, ±45°, and 90° directions) and finite element analysis (FEA) simulation based 

on your specific loads, operating conditions, and failure modes, ensuring that while reducing weight, it precisely 

meets all your requirements for stiffness, strength, and impact resistance.

Q3: We have an innovative product concept but no concrete drawings. Can you provide a one-stop service from 

design to manufacturing?

A3: Absolutely, and this is precisely our core advantage that distinguishes us from ordinary processing plants. 

We offer "co-design and engineering" services. You only need to provide performance targets, space constraints,

 and application scenarios, and our engineering team will collaborate with you to complete the entire process 

from conceptual design, material selection, structural simulation, to production drawings. We are not only a 

manufacturer but also your technical partner at the material application level.

Q4: How long does the production cycle for custom carbon fiber components typically take? Our project 

timelines are very tight.

A4: The typical cycle for standard custom parts is 4-8 weeks, depending on the complexity of the design and 

the manufacturing process. We address urgent needs through a "modular rapid prototyping" process: after 

confirming the basic design, we can provide functional prototypes within two weeks for your testing and 

verification, thus advancing design and production preparation in parallel and saving valuable time for your 

project.

Q5: How do you ensure consistent quality for every product during mass production?

A5: Quality consistency is the cornerstone of our process control. We guarantee this through three systems:

Digital process cards: Parameters (temperature, pressure, time) for each step are locked and automatically 

monitored.

Full traceability: From raw material batch number to the final product, the entire data record is traceable.

Systematic inspection: In addition to full inspection of the first and last pieces, we use non-destructive testing 

methods such as ultrasonic C-scanning and 3D scanning to screen critical batches for internal defects and 

dimensional accuracy, ensuring that every batch delivered to you is flawless.

Q6: How are carbon fiber components reliably connected to our existing metal structures?

A6: Connection technology is key to ensuring overall performance. We offer a variety of proven and mature 

solutions:

Integrated Insert Molding: Metal connectors are directly implanted during the curing process to achieve maximum connection strength.

High-Precision Machining and Bonding: Carbon fiber components are precision machined and combined with 

aerospace-grade structural adhesives and mechanical fastening to form a hybrid connection.

Professional Connection Design: Our engineers will design customized connection solutions for you and conduct 

focused simulations and tests on the connection points to completely eliminate your concerns.

Q7: Besides common aerospace and sporting goods, what are some successful applications of carbon fiber in 

general industrial equipment?

A7: In fact, industrial equipment is one of our fastest-growing sectors. Typical applications include:

Automation Equipment: Robotic arm links, high-speed pickup axes, lightweight and high-rigidity gantry frames, 

which can improve speed and cycle time.

Testing Instruments: Optical platforms, scanning bases, whose extremely high dimensional stability ensures 

measurement accuracy.

Medical and Semiconductor Equipment: Requires non-magnetic, corrosion-resistant, cleanroom-compatible 

supports and moving parts.

Logistics and Transportation: Lightweight drone structural components, robot AGV bodies. We welcome your 

description of the specific operating conditions of your equipment, and we can provide the most relevant case 

studies for reference.

Q8: We want to try carbon fiber components, what should we do first?

A8: The best starting point is a non-binding technical consultation. You only need to provide:

Drawings or photos of the components currently in use.

The core objectives you hope to improve (e.g., weight reduction of XX%, increased stiffness, corrosion 

resistance, etc.).

The approximate annual demand.

Based on this information, we will conduct a preliminary "feasibility analysis and value assessment" for you 

and plan the subsequent steps. Please feel free to contact us to begin your lightweight innovation journey.

We focus on supplying industrial composite materials
with stable quality and export experience.