Concrete Reinvented
Revolutionary graphene-infused concrete technology for infrastructure that lasts centuries, not decades.
Why Cement Must Change — Now
Global CO₂ Emissions Growth
In 2021, CO₂ emissions reached 38 billion tons, increasing to 38.5 billion in 2022
Cement's Global Impact
Cement production accounts for 8% of global CO₂ emissions
Problem
CO₂ emissions grow rapidly. Cement alone accounts for 8% of all global emissions.
Producing 1 m³ of concrete emits 150–250 kg of CO₂.
Motivation
Reduce cement usage without compromising strength.
Target
Enable stronger concrete with less cement using graphene nanomaterials.
Annual CO₂ emissions from cement production
Potential reduction in cement usage with graphene technology
Target year for carbon-neutral concrete industry
Our Technology and Solution
Our proprietary process transforms raw graphite into high-quality graphene for seamless integration into concrete production. This revolutionary approach enhances concrete performance while maintaining compatibility with existing manufacturing processes.
Unique Properties of Graphene
Graphene is a revolutionary nanomaterial with extraordinary properties that transform concrete at the molecular level, creating a superior building material for the future.
Strength
200 times stronger than steel, the strongest material ever tested
Electrical Conductivity
Exceptional electron mobility, superior to copper and silicon
Thermal Conductivity
Conducts heat better than all known materials at room temperature
Chemical Inertness
Highly resistant to chemical degradation and corrosion
Hydrophobicity
Natural water-repellent properties that reduce moisture penetration
Transparency
Nearly transparent despite its density, allowing for novel applications
Our Production Process
We've developed a scalable, efficient process to produce high-quality graphene and integrate it into concrete manufacturing.
Graphite Input
Raw graphite feedstock (natural or synthetic)
Processing Unit
Transforms graphite into liquid-phase graphene
Graphene Dispersion
High-concentration stable aqueous output
Concrete Integration
Inline dosing into mixing systems
Graphite Input
Raw graphite feedstock (natural or synthetic)
Processing Unit
Transforms graphite into liquid-phase graphene
Graphene Dispersion
High-concentration stable aqueous output
Concrete Integration
Inline dosing into mixing systems
Proprietary Technology
Our patented process creates high-quality graphene at industrial scale, with consistent quality and concentration. Unlike traditional methods, our approach is environmentally friendly and cost-effective.
- •Energy-efficient production process
- •Consistent particle size distribution
- •Scalable from laboratory to industrial volumes
Integration Benefits
Our solution seamlessly integrates with existing concrete production facilities, requiring minimal modifications to current processes while delivering transformative performance improvements.
- •Compatible with standard batching equipment
- •No special handling or storage requirements
- •Precise dosing systems for optimal performance
Technical Process
Step from theory into reality as we explore the scientific foundations behind our revolutionary graphene-concrete technology
Molecular-level enhancement of concrete
Graphene-enhanced concrete leverages different forms of graphene for improved performance:
GNP (Graphene Nanoplatelets)
Provide physical reinforcement by filling pores and blocking microcracks.
GO (Graphene Oxide)
Enable both physical and chemical bonding with hydration products (C-S-H).
F-GO (Functionalized GO)
Feature sulfate groups for stronger interaction and enhanced bonding with the cement matrix.
Advanced Geometric Forms in Architecture
One of the most innovative directions in future architecture is the use of advanced geometric forms that make structures both lighter and stronger. A striking example is the Schwarz Primitive Surface — a type of minimal surface characterized by smooth curves and an intricate, porous lattice. Visually complex yet structurally efficient, it offers exceptional stability.
This geometry naturally occurs in structures like bones and coral, where strength must be balanced with minimal weight. When 3D-printed in concrete, Schwarz surfaces distribute loads evenly, allowing for significant material savings without compromising strength.
When combined with graphene-enhanced concrete, the impact is even greater. Graphene adds extraordinary strength; the geometry maximizes efficiency. Together, they create high-performance, lightweight structures using a fraction of the resources.
Biomimetic Design
This approach opens new possibilities for sustainable design — ideal for architects seeking to unite form, beauty, and resilience.
Schwarz Primitive Surface
A mathematical minimal surface that creates optimal strength-to-weight ratio in architectural structures.
Applications
Bridges & Tunnels
Extended lifespan with reduced maintenance for critical transportation infrastructure.
High-Rise Buildings
Superior strength-to-weight ratio enabling innovative architectural designs.
Industrial Facilities
Enhanced resistance to chemical exposure and heavy machinery vibration.
Marine Structures
Exceptional durability in saltwater environments with reduced corrosion.
Aerospace
Ultra-high-performance applications requiring precision engineering.
Highways & Runways
Reduced cracking and rutting under heavy traffic and extreme weather conditions.
Data Centers
Precise thermal management and vibration control for sensitive equipment.
Green Infrastructure
Reduced carbon footprint for environmentally conscious construction projects.
Key Benefits
Sustainability
- ✓Reduces CO₂ Emissions
Lower cement demand directly cuts the carbon footprint of construction.
- ✓Requires up to 30% Less Cement
Higher material performance allows for optimized formulations with reduced binder content.
- ✓Produced Without Chemical Emissions
Our graphene nanoplatelets are manufactured via clean physical processes — no harsh chemicals, no toxic byproducts.
- ✓Extends Infrastructure Lifespan
Improved durability and microcrack resistance result in fewer repairs and longer service life.
Cost Efficiency
- ✓Up to 30% Cement Savings
Optimized formulations reduce binder demand without compromising strength.
- ✓20–25% Lower Cost per m³
Less cement and improved performance translate to tangible savings per project.
- ✓Uses Low-Cost Graphite Input
No need for expensive precursors — our system works with affordable raw materials.
- ✓Payback Period Under 5 Years
Equipment investment is offset quickly through reduced material and transport costs.
- ✓Drop-In Compatibility
Seamlessly integrates into existing batching and mixing workflows.
About Us
Founded by a team of materials scientists and engineers, ConcreteGraphene is dedicated to revolutionizing construction through the application of advanced nanomaterials and sustainable practices.
Our Mission
We are developing next-generation construction materials by combining deep scientific expertise in graphene and concrete technologies.
Our goal is to enable stronger, longer-lasting, and more sustainable infrastructure — grounded in years of research, lab validation, and material innovation.
Future Development
2004–2022: Scientific Foundation
Decades of global research into graphene materials and cement chemistry laid the groundwork for scalable applications. Our team brings direct experience from leading labs and universities working at the frontier of this science.
2023–2024: Core Technology Development
We designed and validated a base formulation that integrates graphene into concrete, improving strength and durability across multiple mix designs.
2025–2026: Pilot Projects and Optimization
Field trials and collaboration with early adopters will refine our process, adapt it to various cement types and mixing conditions, and verify cost-performance benefits at scale.
2027–2028: Scaling and Harsh Environment Deployment
Rollout of specialized variants for high-load, coastal, and thermally extreme environments. Focus on industrial integration and manufacturing repeatability.
2029–2030: Sustainable Expansion
Wider international adoption and integration into green infrastructure initiatives, with ongoing improvement of life-cycle impact and supply chain footprint.
Leadership Team
Our world-class team brings together experts in materials science, engineering, and sustainable construction to drive innovation in the concrete industry.
Professor Sir Konstantin Novoselov
Material Science Innovator
Nobel Prize-winning physicist known for groundbreaking work on graphene. Leads our materials research division and strategic scientific direction.
Professor Harn Wei Kua
Sustainable Construction Materials Engineer/Scientist
Applies his rich experience in sustainability assessment to pioneer the use of various novel sustainable materials to enhance different building capabilities.
Dr. Maxim Rybin
Graphene Technology Developer
Pioneer in graphene applications for industrial use. Developed our proprietary process for integrating graphene into concrete matrices.
Abhimanyu Goel
Architect of Novel Material
Combines architectural expertise with materials science to create innovative structural applications for graphene-enhanced concrete.
Dr. Virgil Gavriliuc
Chemistry Developer
Specializes in chemical interactions between nanomaterials and traditional construction compounds. Leads our formulation optimization team.
Ben Yuan
Technical and Architecture Engineer
Bridges the gap between theoretical research and practical implementation. Oversees field testing and commercial deployment of our technology.
Ready to Transform Infrastructure?
Connect with our engineering team to discuss how graphene-reinforced concrete can revolutionize your next project.
Contact Us Directly
We're ready to discuss your specific needs and how our technology can benefit your projects.
info@concretegraphene.com