Intelligent Cement System

The World's First AI-Governed Cement

Every batch computationally governed from formulation through decades of performance verification. Built on 24 US patents in signal processing mathematics.

Intelligent Cement System (ICS)

Traditional cement is a dumb material — mix, pour, hope. ICS transforms concrete into an intelligent, self-monitoring infrastructure platform where every parameter is optimized, every performance metric is measured, and every claim is verifiable.

Adaptive Formulation Engine

DCL continuously adjusts mix designs based on real-time raw material variability — volcanic ash composition, biochar properties, and local aggregate characteristics.

Predictive Performance Modeling

24 US patents in signal processing mathematics now predict concrete strength, durability, and carbon uptake with ±15% accuracy before a batch is even mixed.

Real-Time Quality Verification

Embedded sensors + satellite surveillance + AI correlation create an unfalsifiable record of what was actually built and how it actually performs.

Lifecycle Intelligence

From raw material sourcing through decades of in-service performance, every data point is captured, correlated, and made publicly verifiable.

Proprietary AI Architecture

Domain Coupled Learning (DCL)

Built on 24 issued US patents in multi-channel signal optimization, DCL occupies the space between single-domain ML and broad-spectrum LLMs. It learns the coupling structure of the entire physical system — not just one variable. MIMO mathematics applied to physical systems. Compact, deterministic, edge-deployable. No cloud required.

Signal → Cement Translation

Multi-channel equalization math now governs mix design optimization from variable volcanic inputs.

Adaptive Learning

Each batch refines the model — the system gets smarter with every pour, adapting to local material characteristics.

Predictive Accuracy

Target ±15% prediction of 28-day strength before mixing, improving to ±8% with regional calibration data.

DCL Processing Pipeline

1

Raw Material Characterization

XRF, particle size, moisture content

2

Multi-Channel Optimization

24-patent signal processing math

3

Mix Design Generation

Optimal ratios for target performance

4

Production Monitoring

Real-time sensor feedback loop

5

Performance Verification

Predicted vs. actual correlation

Chemistry: CaO vs MgO

Two distinct chemistries, both clinker-free, both leveraging Philippine volcanic resources.

CaO (Calcium Oxide)

DIDICAS, KANLAON, PINATUBO, APO, MAYON

Roman concrete chemistry — quicklime reacts with volcanic ash pozzolans to form calcium silicate hydrate (C-S-H) and calcium aluminate hydrate (C-A-H) gels.

Key Advantages

  • Proven over 2,000 years (Roman harbors still standing)
  • Self-healing via lime clast activation
  • Excellent seawater resistance (tobermorite growth)
  • 50–150 kg CO₂ reduction per ton vs Portland

MgO (Magnesium Oxide)

TAAL

Reactive magnesia chemistry — MgO carbonates in ambient CO₂ to form stable magnesium carbonates, actively sequestering carbon during curing.

Key Advantages

  • Net carbon-negative (absorbs more CO₂ than production emits)
  • 100–300 kg net CO₂ sequestration per ton
  • Premium carbon credit generation
  • Growing strength through continued carbonation

5-Layer Verification Architecture

Making infrastructure corruption physically impossible, not just illegal.

Deep Dive
Layer 1

Nano Sensors

Embedded carbon nanotube strain networks, pH sensors, and chloride electrodes continuously measure actual performance from inside the material.

Layer 2

Satellite Surveillance

Synthetic aperture radar detects millimeter-scale deformation. Optical imaging confirms physical existence and condition.

Layer 3

Domain Coupled Learning

Proprietary AI architecture occupying the space between single-domain ML and broad-spectrum LLMs. Learns the coupling structure of the entire physical system. Correlates all data sources, detects anomalies, and flags divergence between predicted and actual performance. Compact enough to run on edge hardware at the pour site.

Layer 4

Hedera Guardian Ledger

Every measurement timestamped, immutable, and publicly verifiable on distributed ledger technology.

Layer 5

PwC Attestation

Big Four professional liability backs the data integrity with independent third-party verification.

ICS Project Orchestration

Infrastructure Intelligence as a Service

A dedicated Project Agent on the Hedera Guardian hashgraph that orchestrates the full infrastructure lifecycle. Purpose-built for Bulkreto — but material-agnostic by design.

Full Details

Lives on the Ledger

Each project instantiated as a governed entity on Hedera Guardian with its own smart contract identity and auditable history.

Zero Coordination Delay

Real-time synchronization of materials, crews, weather, and optimization. No human bottleneck.

Anomaly to Solution

Recalculates downstream impacts, adjusts schedules, and presents problem and solution simultaneously.

Queryable by Anyone

Banks, regulators, and project owners interrogate the agent directly. Real-time, verified, on-ledger.

See the Technology in Action

Explore our product lines to see how ICS, DCL, the verification architecture, and the Project Agent come together in real-world applications.