Unmatched durability and cost-efficiency
Transform water-exposed concrete infrastructures. Save costs. Build for generations.
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Carbon Fiber Composite Cable (CFCC)
The Future of Infrastructure: Built to Endure with CFCC®
Turn your vision into a reality with high-strength, non-corrosive reinforcements engineered to withstand the test of time.
Every infrastructure project begins with a commitment to quality. Yet, corrosion, high maintenance, and material fatigue are costly setbacks. What if there was a way to eliminate these issues from the start?
CFCC® from Tokyo Rope is designed to be the solution for professionals who demand more—high tensile strength, zero rust, and minimal relaxation loss. CFCC® reduces the need for repairs, saving time, money, and resources.
Best of all, implementing CFCC® comes with ZERO ADDITIONAL COST.
The advanced technology used for traditional iron ropes is fully compatible with carbon fiber composite cables, meaning no new equipment or infrastructure is required. You can seamlessly upgrade to the superior performance of CFCC® without any added implementation expenses, maximizing your ROI from day one.
Product Features
Advantages
- High Tensile Strength: CFCC® offers double the tensile strength of standard steel, allowing for greater structural stability.
- Non-Corrosive Composition: Built from carbon fiber and epoxy resin, CFCC® resists corrosion, outperforming even coated steel.
- Low Relaxation Loss: Maintains tension over time, providing long-term structural reliability.
- Environmental Resilience: CFCC® withstands extreme conditions (acidic, alkaline, and high-temperature environments) without degradation.
- Reduced Lifecycle Costs: Over time, CFCC® cuts down maintenance and replacement costs by a substantial margin, providing long-term savings for demanding projects.
Detailed Technical Specifications – The Science Behind CFCC®'s Performance
Tensile Strength and Durability CFCC®’s High Performance: “Offering tensile strength comparable to steel but with superior resistance to environmental wear, CFCC® keeps your projects strong, reliable, and safe.”
Technical Graphs: Load-strain curves, tensile fatigue data, and comparative stress-strain charts.
Technical Graphs: Load-strain curves, tensile fatigue data, and comparative stress-strain charts.
Relaxation and Creep Data Reliable Under Load: “With half the relaxation loss of traditional steel and negligible creep, CFCC® performs consistently under long-term stress.”
Data Visualization: Charts comparing CFCC® and steel performance over time, emphasizing CFCC’s low relaxation loss and creep even in high-load scenarios.
Data Visualization: Charts comparing CFCC® and steel performance over time, emphasizing CFCC’s low relaxation loss and creep even in high-load scenarios.
Environmental Resistance Proof Against Corrosion and Chemicals: “Whether exposed to acidic or alkaline environments, CFCC® remains strong without degradation, ensuring longevity where steel may fail.”
Evidence-Based Comparison: Results from exposure testing in both acidic and high-temperature alkaline conditions.
Evidence-Based Comparison: Results from exposure testing in both acidic and high-temperature alkaline conditions.
Financial and Environmental Impact – Building Better, Saving More
Lifecycle Cost Analysis Highlight the Savings: “With its corrosion resistance and low maintenance, CFCC® offers up to 30% savings in lifecycle costs compared to steel. Less upkeep means fewer expenses, allowing you to allocate resources where they matter most.”
Comparison Chart: Simple visualization comparing lifecycle costs of CFCC, black steel, and epoxy-coated steel, showing the savings potential.
Eco-Friendly Benefits Durable and Sustainable: CFCC® contributes to eco-friendly construction by reducing the need for replacements and lowering resource consumption. Longer-lasting infrastructure equates to less waste and fewer resources spent on repairs.
Supporting Quote: “CFCC® allows infrastructure to be built once and built to last, minimizing environmental impact.”
reinforcements for the future generations
Flexibile
No Electromagnetic
High Tensile Strength
Long Life Span
Corrosion Free
ARTICLES
| Name | Weight (g/m) | Diameter (mm) | Material |
|---|---|---|---|
|
CFCC 1x7 D12,5 |
146 | 12,5 | Carbon |
Reference project
Projects
PAMB Bridge
A pilot application for modular bridge construction was realized as part of this innovative development project in Saxony. The central construction element is a precast bridge girder made of carbon concrete, which was designed as a...
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Product Applications
Versatile applications of CFRP strands in the construction industry
CFRP (Carbon Fiber Reinforced Polymer) strands offer innovative solutions for a variety of prestressing methods and are indispensable in numerous construction projects. They can be used for bonded prestressing (both immediate and post-tensioning) as well as unbonded prestressing (internal and external). This flexibility makes them ideal for meeting a wide range of structural requirements.
Wide range of applications
CFRP strands are used in civil engineering structures and building construction. They are particularly suitable for load-bearing components such as bridges and bridge decks, tower segments, prestressed floors, and girders. Their high strength and corrosion resistance make them an excellent choice for demanding projects.
Durable performance – Even in challenging environments
The exceptional material properties of CFRP strands enable their use in a variety of environmental conditions. They can be applied everywhere, with significant advantages for structures located near the sea. Due to their high resistance to corrosion from salty air and water, CFRP strands are ideal for coastal projects, ensuring a durable, low-maintenance solution.
Proof of Performance –CFCC® Real-Life Projects
Case Study #1 – Beddington Trail Bridge
- Challenge: Severe corrosive environment required a material with high resistance and longevity.
- Solution: CFCC® was implemented in bridge girders, eliminating corrosion risk and reducing maintenance needs.
- Results: Structural integrity maintained over years without degradation, showcasing CFCC’s exceptional durability.
Case Study #2 – Yamanashi Maglev Test Line
- Challenge: Magnetic interference needed to be avoided in this innovative transportation line.
- Solution: CFCC® was used for non-magnetic guide beams.
- Results: Enabled smooth operation without interference, reinforcing CFCC’s role in future-focused infrastructure.
See How CFCC Can Transform Your Project
Request a Quote below, or speak with an expert. We are here for YOU. Always. Personally.
Related Products
- Performance Enhancement
- Handling and Logistics
- Compliance and Compatibility
- Application and Installation
- Durability and Resistance
- Sustainability and Environmental Impact
- Is solidian GRID suitable for replacing corroded steel reinforcement?
- How does solidian GRID contribute to system durability when used with mortars?
- Can solidian GRID conform to curved surfaces during installation?
- How does the weight of solidian GRID affect transportation and installation?
- Is there an Environmental Product Declaration available for solidian GRID and solidian REBAR?
- Has solidian GRID received official building approvals?
- With which types of binders is solidian GRID compatible?
- Is solidian GRID approved for use in standard concrete applications?
- What is the minimum thickness required for concrete layers using solidian GRID?
- Can solidian GRID be used to reinforce existing concrete structures?
- What is the expected lifespan of solidian GRID in wastewater applications?
- How does solidian GRID perform in acidic environments?
- How does solidian GRID contribute to sustainable construction?
- Resource efficiency: By minimizing the need for extra concrete cover, solidian GRID conserves materials such as cement and aggregates, contributing to resource efficiency.
- Environmental Product Declarations (EPDs): solidian provides transparent data on the environmental impact of their products through EPDs, facilitating informed decision-making for sustainable building projects.
Solidian Kelteks - Reduced CO₂ emissions: The use of solidian GRID in construction can lead to significant reductions in CO₂ emissions due to decreased material usage and enhanced durability, which extends the lifespan of structures and reduces the need for repairs.
frequently asked questions
Your top inquiries, addressed
Yes, in cases where steel reinforcement has corroded, solidian GRID can serve as a substitute for structural reinforcement. The existing corroded steel can remain in place and be covered with a new layer of carbon-reinforced mortar, restoring structural integrity.
When combined with high-quality mortars, solidian GRID significantly enhances the overall durability of the system, providing a robust solution for demanding environments.
Yes, solidian GRID strikes a balance between stiffness and flexibility, allowing it to be applied to curved surfaces with diameters greater than 800mm.
The lightweight nature of solidian GRID facilitates easy transportation, even through sewage tunnels, and simplifies the installation process, reducing labor and equipment requirements.
Yes, a certified Environmental Product Declaration (EPD) is available for both solidian GRID and solidian REBAR. The EPD provides transparent and verified information about the environmental impact of these products throughout their life cycle, supporting sustainability assessments in construction projects.
Yes, solidian GRID has obtained the General Building Approval (abZ) from the German Institute for Building Technology (DIBt). This approval authorizes its use as carbon reinforcement grids in construction, ensuring compliance with national building standards.
solidian GRID is versatile and works with a range of binders, including Portland Cement, Calcium Aluminate Cements, and Geopolymer Cements.
solidian GRID holds German Approval as reinforcement for EN 206 concretes, supporting its compatibility with various mortar systems, including those adhering to DIN 19573.
Concrete layers reinforced with solidian GRID can be as thin as 20mm, as no additional concrete cover is needed to protect the reinforcement from corrosion.
Yes, solidian GRID can be applied as an additional layer over existing steel-reinforced concrete. When combined with solidian ANTICRACK, it offers enhanced crack-limiting properties, providing extra protection to the underlying steel reinforcement.
Classified under XWW4, solidian GRID ensures long-term performance for over 50 years, making it a durable choice for long-term infrastructure projects.
solidian GRID is fully resistant to severe acidic conditions, including environments with pH levels as low as 0. It has successfully passed tests in accordance with DIN 19573 standards for pH 0 and pH 1.
solidian GRID enables the design of thinner concrete layers (greater than 20mm) without requiring additional concrete cover for reinforcement protection. This reduction in material usage leads to lower resource consumption and a diminished environmental footprint, supporting more sustainable construction practices.
Additional information:
