Discount Basalt Rebar Pricelist & Companies

The Global Engineer's Resource on Corrosion-Proof Basalt Fiber Reinforced Polymer (BFRP) Technology & Structural Composites Procurement

Jurong Best Composite Materials Co., Ltd.

Jurong Best Composite Materials Co., Ltd. is strategically located in the ancient town of Maoshan, a historic cultural and commercial hub with a heritage spanning over a thousand years, situated in Jurong City, Zhenjiang, Jiangsu Province. Positioned dynamically in the lower reaches of the Yangtze River, our manufacturing facility stands adjacent to metropolitan Nanjing, benefiting from rapid transit logistics to the Nanjing Lukou International Airport.

Global logistics are seamlessly integrated via the Jianning-Taicang Expressway (connecting Nanjing directly to Taicang), and the Jurong exit of the Shanghai-Nanjing Expressway. This vital network directly bridges our operations to Zhenjiang Port and Nanjing Port, placing us within the core circle of the Yangtze River Delta Economic Zone. For global procurement directors, this localized infrastructure guarantees highly secure supply lines and robust container loading and dispatch capacities.

Advanced Composite R&D Centers

  • Production Facility Jurong Best Composite 1
  • Production Facility Jurong Best Composite 2
  • Production Facility Jurong Best Composite 3

Equipped with state-of-the-art pultrusion and compound injection lines, our facilities represent the cutting edge of modern polymer reinforcement processing in China.

Technical Specification & Comparative Analysis

Understanding the mechanical properties and lifecycle performance of Basalt Fiber Reinforced Polymer (BFRP) Rebar compared to traditional engineering reinforcements.

Mechanical Property Basalt Rebar (BFRP) Glass Fiber Rebar (GFRP) Traditional Grade 60 Steel
Tensile Strength (MPa) 1100 - 1400 MPa 600 - 1000 MPa 400 - 550 MPa
Tensile Modulus (GPa) 50 - 65 GPa 40 - 50 GPa 200 GPa
Density (g/cm³) 1.9 - 2.1 (Ultra-lightweight) 2.0 - 2.2 7.85 (Heavyweight)
Corrosion Resistance Immune to Acids, Bases, Salts Highly Resistant (Alkali sensitive) Susceptible to Oxidation & Rust
Electrical Conductivity Non-conductive (Insulative) Non-conductive Highly Conductive
Thermal Expansion Matches Concrete (Coeff: ~9.0) Matches Concrete (Coeff: ~9.5) Matches Concrete (Coeff: ~12.0)

Why Engineering Projects are Transitioning to Basalt Rebar

Traditional carbon steel rebar is highly vulnerable to degradation in marine, coastal, and chemical-heavy environments. As the concrete matrix develops micro-cracks over time, moisture and chlorides penetrate to the steel core, initiating oxidation. Rust expands to up to 6 times the volume of the original steel, inducing tensile stresses that lead to concrete spalling and structural failures.

BFRP Basalt Rebar completely mitigates this hazard. Synthesized from natural basalt rock through high-temperature melting and continuous pultrusion with epoxy/vinyl ester resins, basalt rebar exhibits complete chemical inertness. It maintains its structural integrity across a broad pH spectrum, extending the concrete asset lifespan from 40 years to over 100 years without requiring costly cathodic protection systems.

Global Procurement Needs & Market Drivers

Analytical insights on why leading infrastructure consortia and civil engineering enterprises are restructuring supply chains to incorporate basalt composites.

74%
Weight Reduction vs. Steel
2.5x
Tensile Strength Factor
100+
Years Service Lifetime
0%
Magnetic Interference

Decarbonization Objectives

Global concrete and steel manufacturing account for major greenhouse gas emissions. The integration of basalt composites, derived from abundant volcanic basalt resources via clean melting, dramatically reduces the carbon footprint (CO2-equivalent) per metric ton of reinforcement material deployed.

Freight & Handling Efficiencies

Because basalt rebar is 1/4 the weight of carbon steel, logistics and transport operations require significantly less fuel. Onsite handling is safer and faster, completely eliminating the need for heavy crane setups to unload and position structural reinforcement grids.

Lifecycle Cost Optimization

While the initial purchase cost of steel rebar may appear lower, the life-cycle cost analysis (LCCA) of concrete structures reveals that composite reinforcement yields substantial financial savings by eliminating rehabilitation, repair, and cathodic protection overheads.

Understanding Discount Basalt Rebar Pricelists

An overview of the commercial factors shaping industrial pricing models and how volume-based contracting structures discount rates.

Volume-Tiered Pricing Models

Industrial procurement of basalt composites relies heavily on run-time optimization in pultrusion manufacturing. At Jurong Best Composite Materials, we structure discounts based on project volume:

  • Prototype & Testing Volume (Under 5,000 meters): Standard industrial list pricing applies, targeting material approval and local validation phases.
  • Development Volume (5,000 - 20,000 meters): Intermediate tier discount, ideal for localized bridge deck components and municipal utility ducts.
  • Infrastructure Scale (Above 20,000 meters): Maximum volume discount. Allows continuous pultrusion operations, reducing material waste and optimizing machinery throughput.

Key Factors Influencing Cost

The unit price per meter of basalt rebar is dictated by several structural variables:

  1. Resin Matrix Selection: Vinyl ester offers superior alkali resistance compared to standard polyester resin, altering the baseline pricing.
  2. Surface Treatment: Sand-coated finishes enhance concrete bond strength but require an extra manufacturing step compared to plain ribbed profiles.
  3. Diameter Calibration: Ranging from 4mm up to 32mm. The quantity of continuous basalt fiber rovings per meter determines the raw material weight and cost.

Macro Industry Solutions & System Integration

How basalt composite products are implemented across diverse critical sectors to solve long-term degradation issues.

Marine Infrastructure & Seawalls

Coastal defenses, seawalls, docks, and piers are exposed to constant saltwater splash actions. Basalt rebar prevents reinforcement oxidation, protecting marine structural concrete from spalling and keeping assets operational without expensive repair cycles.

Transportation & Bridge Decks

De-icing salts applied during winter seasons seep into bridge structures, destroying internal steel. Decks reinforced with basalt or GFRP composite bars are immune to chloride attack, reducing maintenance and prolonging civil bridge lifespans.

MRI Rooms & High-Voltage Stations

Medical imaging facilities and electrical substations require environments free of magnetic fields. Because composites are non-metallic and non-conductive, they are the ideal material for MRI facility slabs and high-voltage transformer foundations.

Localized Support & Global Compliance Framework

To qualify as a tier-1 supplier of civil reinforcement materials, compliance with international design codes is essential. Jurong Best Composite Materials Co., Ltd. aligns its manufacturing protocols with international standards to ensure reliability for municipal projects worldwide.

We work in accordance with key standards such as:

  • ASTM D7957/D7957M: Standard Specification for Solid Round Glass Fiber Reinforced Polymer Bars for Concrete Reinforcement.
  • ACI 440.1R: Guide for the Design and Construction of Structural Concrete Reinforced with FRP Bars.
  • CSA S806: Design and Construction of Building Structures with Fibre Reinforced Polymers in Canada.

Our quality management team oversees every batch of basalt and polymer materials, documenting properties like glass transition temperature (Tg), fiber mass content, and transverse shear strength before shipping.

Rigorous Quality Control Metrics

Every shipment is accompanied by a Quality Assurance Certificate detailing the following tests:

Test Profile Standard Protocol Acceptance Target
Fiber Volume Ratio ASTM D3171 > 70% by weight
Transverse Shear ASTM D7617 > 150 MPa
Water Absorption ASTM D570 < 0.25% (at saturation)

Technology Roadmap & Next-Gen Research

Discover how we are advancing composite rebar technologies to meet the evolving demands of smart cities and future infrastructure.

Bio-Based Resin Matrices

We are actively testing bio-based resins derived from renewable plant starches. This initiative aims to reduce fossil-fuel reliance in manufacturing while maintaining high mechanical strength and corrosion resistance.

Smart Composite Rebar

By embedding micro-fiber-optic strain sensors into the basalt core during the pultrusion phase, we are developing smart rebars. These enable real-time structural health monitoring of bridges and tunnels throughout their service life.

Recyclable Polymer Compounding

We are expanding our product offerings with new thermoplastic composite options. Unlike thermoset resins, thermoplastic matrices can be reshaped at the end of their lifecycle, improving recyclability.

Corporate Performance & News Archive

Operational updates and client developments from the factory headquarters of Jurong Best Composite Materials Co., Ltd.

16 Nov.2019

Customer visited our company for quality checking today

The clients visited our factory today, and conducted a professional and rigorous inspection of the PA6 and PA66 long GFRP (Glass-Fiber-Reinforced-Polymer) granules. They expressed high satisfaction with our products' quality and quality control processes. Reported by Lu.

Quality Checking Inspection
09 Nov.2019

New GFRP machine line in the workshop and start running today!

Our company has installed a new production line in the workshop, which commenced operations today. Initial test runs were successful, and output capacity has successfully met project requirements.

New Production Line Installation

Featured Product Line Highlights

LONG GFRP GRANULES Overview

LONG GFRP (GLASS-FIBER-REINFORCED-POLYMER) GRANULES

Our premium-grade GFRP granules are suitable for producing a wide range of specialized components. These include automotive parts, washing machine components, and small kitchen electrical appliances, among other applications.

By blending long-glass fiber reinforcing technology with targeted polymer formulations, we ensure high impact strength, creep resistance, and dimensional stability under load.

Material Application Index:

Applications Applications Applications Applications Applications Applications Applications Applications Applications Applications Applications Applications

Frequently Asked Questions (FAQ)

Expert clarifications regarding mechanical performance, site handling, and commercial procurement of basalt composite products.

What is the shelf life and UV resistance of basalt composite rebar?
Basalt fiber-reinforced polymers (BFRP) are highly stable and do not degrade under normal conditions. However, continuous direct exposure to ultraviolet (UV) radiation can affect the polymer resin matrix over time. We apply UV-inhibiting additives during extrusion, and suggest storing rebars under protective coverings if they will be exposed to sunlight for longer than three months before installation.
Can basalt rebar be bent on-site during installation?
Unlike steel, pultruded thermoset composite rebar cannot be bent after the resin matrix has cured. All bends, shapes, and hooks must be specified during the design phase and manufactured at our factory. We supply customized structural shapes (such as stirrups, links, and Z-bars) to meet specific design requirements.
How does the thermal expansion of basalt rebar compare to concrete?
Basalt rebar has a thermal expansion coefficient (~9.0 x 10^-6/K) that matches typical concrete. This close alignment helps prevent micro-cracking and internal stress concentrations during thermal cycles.
How does density affect shipping and structural loads?
With a density of 1.9–2.1 g/cm³, basalt rebar is approximately 75% lighter than steel. This reduction lowers transport costs, simplifies on-site handling, and reduces the dead weight of precast concrete panels.
Is basalt rebar suitable for high-temperature structures?
While raw basalt fibers can withstand temperatures above 1000°C, the performance of composite rebar is limited by the glass transition temperature (Tg) of its polymer resin. Our standard formulations are designed for service temperatures up to 80°C. For higher temperature requirements, please contact our technical team to discuss specialized resin matrices.

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