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Redefining Cement for a Carbon-Constrained World
Our innovative approach eliminates traditional carbon-intensive processes while creating superior building materials.
The Problem with Portland Cement
Accounts for 8% of global CO₂ emissions
Depletes natural limestone reserves
Clinker production requires heating to 1450°C
Consumes enormous amounts of fossil fuels
Limited durability in harsh environments
Our Clinker-Free Solution
95% reduction in carbon emissions
Processes at ambient temperatures
Superior resistance to chemical attack
Utilizes fly ash and GBFS waste materials
Geopolymer technology creates stronger bonds
Carbon Footprint Comparison
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95% Carbon Reduction
NuGreen's innovative process eliminates the carbon-intensive clinker production phase, dramatically reducing emissions compared to traditional Portland cement.
Carbon Intensity
95% Reduction
Our Carbon Reduction Methodology
We source fly ash and ground blast furnace slag (GBFS) from industrial facilities that would otherwise send these materials to landfills.
Diverts 1.3 tons waste per ton cement
Waste Collection
Our proprietary organic plant based alkali-activation process creates strong aluminum-silicate bonds at ambient temperatures, eliminating the need for high-heat kilns.
Saves 900°C in processing temperature
Geopolymer Activation
Unlike traditional cement, our process avoids CO₂ emissions entirely by eliminating limestone calcination and high-temperature firing.
Prevents over 800 kg of CO₂ emissions per ton compared to OPC
CO₂ Avoidance
Carbon Verification
Life Cycle Assessment
Comprehensive cradle-to-gate LCA conducted by third-party verifiers following ISO 14040/14044 standards.
Projects using NuGreen cement can qualify for carbon credits on voluntary markets.
Carbon Credit Generation
Quality Certification
ASTM C618 Compliance
Meets or exceeds all requirements for fly ash in concrete applications.
Performance Testing
Rigorous testing for compressive strength, durability, and chemical resistance.
Environmental Product Declaration
Transparent EPDs documenting environmental impacts across the full product lifecycle.
Performance Comparison
Circular Economy Model
Our cement technology creates a closed-loop system that transforms industrial waste into valuable infrastructure while reducing carbon emissions.
Industrial Waste Collection
We source fly ash from coal plants and slag from steel mills
Material Processing
Waste materials are processed and activated using our proprietary methods
Infrastructure Creation
Materials are used to build long-lasting, carbon-negative infrastructure
Technical Specifications
Compressive Strength (28d)
45-55 MPa
Flexural Strength (28d)
6–10 MPa
Setting Time (initial)
45-60 minutes
Slump
80-120mm
Strength at 90 minutes
~35 MPa (5,000 PSI)
Density
2200-2400 kg/m³
Shrinkage (28d)
< 0.03%
Freeze-Thaw Resistance
300+ cycles
Product Specifications
Early Strength Performance
Strength at 90 Minutes:
~35 MPa / 5,000 PSI
Strength at 24 Hours:
~60 MPa / 9,000 PSI
* NuGreen’s rapid strength gain is ideal for precast, repair & fast-track projects.
Durability / Chemical Resistance
Freeze-Thaw
Sulfate Shield
Carbon
Sulfate Resistance:
Excellent (ASTM C1012)
Chloride Ion Penetration:
Low (ASTM C1202 / <1000 Coulombs)
ASR:
Mitigated by fly ash chemistry
Environmental Metrics
CO₂ Emissions:
<0.08 tCO₂ / ton cement
(vs 0.9– 1.0 for OPC)
Embodied Carbon:
~90–99% lower than Portland cement
Water Savings:
~50% lower water demand
Energy Usage:
~99% less than traditional clinker kiln processes
Thermal / Fire Resistance
Thermal Conductivity:
Lower than OPC
Fire Resistance:
Geopolymer binders often outperform OPC at high temps
* Valuable for infrastructure and defense applications.
Compliance Standards
Third-Party Lab: SGS, CTLGroup
Mixing & Placement Notes (for Contractors)
Compatible With:
Standard mixers, pump lines, batch plants
Working Time:
~30–40 minutes
Cure Time Before Load:
<24 hrs for light load, full cure in 28 days