Revolutionizing the construction industry with non-corrosive, high-tensile fiberglass concrete reinforcement bars designed for eternal durability and eco-friendly infrastructure.
As a global leader in the manufacturing of non-metallic mineral products, we specialize in fiberglass concrete reinforcement bars, setting the industry benchmark for corrosion resistance and structural longevity. Our advanced pultrusion technology ensures that every bar delivers maximum tensile strength without the risk of rust.
By integrating high-grade glass fibers with specialized polymer resins, our composite reinforcement solutions offer a lightweight yet incredibly strong alternative to traditional steel, significantly reducing construction costs and maintenance cycles in harsh environments.
Driven by innovation in polymer chemistry and fiber alignment to ensure unmatched reliability.
Quantifying the superiority of GFRP over traditional steel reinforcement.
Comprehensive physical properties for fiberglass concrete reinforcement bars across various diameters.
| Tensile Strength (MPa) | Elastic Modulus (GPa) | Cross Section (mm²) | Weight (kg/m) | Standard Grade | |
|---|---|---|---|---|---|
| 6 mm | 600-800 | 45 | 28.27 | 0.11 | Industrial GFRP |
| 8 mm | 600-800 | 45 | 50.27 | 0.20 | Industrial GFRP |
| 10 mm | 600-800 | 45 | 78.54 | 0.31 | Industrial GFRP |
| 12 mm | 600-800 | 45 | 113.10 | 0.45 | Industrial GFRP |
| 16 mm | 600-800 | 45 | 201.06 | 0.80 | Heavy Duty GFRP |
| 20 mm | 600-800 | 45 | 314.16 | 1.25 | Heavy Duty GFRP |
| 25 mm | 600-800 | 45 | 490.87 | 1.95 | Specialized Grade |
| 32 mm | 600-800 | 45 | 804.25 | 3.20 | Specialized Grade |
Note: All values are typical averages. Custom tensile strength and resin formulations are available upon request to meet specific project requirements.
Real-world implementations demonstrating the superiority of GFRP over steel.
Implemented GFRP bars to eliminate chloride-induced corrosion in a high-salinity environment.
Used GFRP for rapid installation and lightweight transport across urban zones.
Solved moisture-related corrosion issues in deep tunnels using non-conductive GFRP.
Designed high-load industrial floors with GFRP for electromagnetic neutrality.
Successfully deployed GFRP to prevent freeze-thaw cycle cracking and rust in Arctic conditions.
Provided acid-resistant reinforcement for laboratories handling corrosive chemical agents.
Engineered to perform where traditional steel fails.
Seawalls, jetties, and harbor docks requiring zero-oxidation reinforcement.
Railway sleepers and subway tunnel linings for vibration damping.
Wind turbine bases and nuclear plant containment shells.
Clean-room floors requiring total immunity to chemical spills.
Deck reinforcement for bridges in salt-sprayed urban corridors.
Concrete slabs for leachate tanks and chemical waste storage.
Every batch undergoes destructive tensile testing to ensure the breaking point exceeds the specified engineering grade.
We use cross-sectional microscopy to verify complete resin impregnation, eliminating internal voids that could lead to failure.
Laser-guided measurement systems ensure every bar meets strict tolerance limits for seamless integration in construction.
Our manufacturing process is audited by third-party agencies to guarantee global compliance.
Expert answers to common technical and commercial inquiries.
Join hundreds of global projects switching to fiberglass concrete reinforcement bars for sustainable, rust-free, and high-strength construction.