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🧬 Digital DNA™ ⚗️ Material Genomics
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Genomics-Based Battery Intelligence

Where Material Science
Meets Artificial Intelligence The Living Genome of Every Battery Cell

Digital DNA™ fuses 12+ years of Material Genomics with real-time manufacturing and field data to build chemistry-aware AI models that predict battery safety, maximize lifetime, and drive down total cost of ownership — continuously, from mine to mission.

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Years Material Genomics
0
Data Points Catalogued
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Supply-Chain Layers
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Prediction Accuracy
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Lifetime Extension
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The Continuous Data Spine

The Genomic Thread™

A single unbroken data lineage connecting every stage of a battery's life — from geological origin to real-world performance. Nothing is lost. Everything is traceable.

⛏️01
Mining & Extraction
Provenance & geochemical fingerprinting
🧪02
Material Processing
Electrochemical genomic tagging
🔬03
Electrode Fabrication
Process deviation detection
🔋04
Cell & Pack Assembly
Formation & heritage mapping
🚗05
EV & BESS Deployment
Real-time telemetry & BMS tuning
♻️06
Second Life & Recycling
Closed-loop SOH & recovery
Stage 01
⛏️
Mining & Extraction

Geochemical fingerprinting begins at the geological source. Full provenance tracking for lithium, cobalt, nickel and manganese across global mining operations — establishing the first link in the Genomic Thread™ before a single electrode is made.

GeochemistryProvenanceLi / Co / Ni / Mn
Stage 02
🧪
Material Processing

Chemical, structural, and electrochemical fingerprints captured at precursor and active material stages. Every batch is genomically tagged and linked to its mining origin — creating a continuous, queryable record of material identity across suppliers and geographies.

XRD / XPSBatch TaggingSupplier Traceability
Stage 03
🔬
Electrode Fabrication

Coating weight, calendering pressure, porosity, and formation data are fused with upstream material genomics. Process deviations are caught in real time — before they propagate downstream into cells and packs where correction costs multiply by orders of magnitude.

In-line QCProcess GenomicsDeviation Alerts
Stage 04
🔋
Cell & Pack Assembly

Formation cycling, capacity grading, and pack-level integration data are woven into each cell's genomic record. The material heritage of every electrode pair informs system-level performance predictions — connecting atomic-scale decisions to pack-level outcomes.

Formation DataCapacity GradingPack Modelling
Stage 05
ELECTRIC VEHICLE
+
BATTERY ENERGY STORAGE SYSTEM GRID STORAGE
EV & BESS Deployment

Real-time field telemetry — temperature profiles, state-of-charge trajectories, cycle history — is continuously mapped back to each battery's material genomics. The result is a closed-loop learning system: field data improves models, and models improve BMS tuning in real time.

SOC / SOHAdaptive BMSClosed-Loop AI
Stage 06
♻️
Second Life & Recycling

Genomic intelligence enables precise state-of-health assessment for second-life BESS applications, and optimised routing through recycling pathways. Every material recovered carries its full genomic history — maximising value extraction and completing the circular economy loop.

Second LifeSOH AssessmentCircular Economy
Platform Architecture

Three Layers of Digital DNA™

From atomic-level material characterization to system-level predictive intelligence — a vertically integrated AI platform built exclusively for electrochemical systems.

01
🧬
Material
Genomics
XRD / XPSElectrochemistry Thermal AnalysisMolecular Fingerprinting
12+
Years of data
4
Material classes
50M+
Data points

Over 12 years of proprietary experimental data distilled into deep chemical, structural, and electrochemical fingerprints. Every critical battery material — cathode, anode, electrolyte, separator — is characterized at the molecular level, creating an unmatched reference library that underpins every predictive model in the platform.

Chemistry-aware fingerprinting — each material's unique electrochemical signature captured and stored as a queryable genomic record.
Cross-chemistry comparison — NMC, LFP, NCA, LMO and next-generation chemistries benchmarked in a unified dataset.
Degradation root-cause library — failure modes mapped to material traits so field anomalies trace back to their origin in minutes.
02
🔗
Genomic
Thread™
Full TraceabilityRoot-Cause AI Blockchain AnchoringReal-Time
6
Supply chain layers
100%
Provenance coverage
<1s
Trace latency

A continuous, searchable data spine connecting mine, material, electrode, cell, pack and field behaviour into a single coherent record. Unlike siloed MES or BMS data, the Genomic Thread™ preserves full provenance — enabling root-cause analysis and predictive alerts that span the entire value chain.

End-to-end data lineage — every data point links forward and backward across all six supply-chain layers without gaps or hand-off loss.
Immutable provenance anchoring — blockchain-verified checkpoints at critical handoffs for regulatory compliance and audit readiness.
Real-time ingestion pipeline — streaming data from MES, BMS, SCADA and field telematics woven continuously into the Thread.
03
🤖
Battery Genomic
Intelligence
Degradation ModelingFire Prediction PINN / ML Hybrid
Lifetime extension
99%
Prediction accuracy
Wks
Early fire warning

Physics-informed machine learning trained on genomic fingerprints rather than anonymous fleet averages. The result: chemistry-specific degradation trajectories, fire-precursor detection weeks before failure, and duty-cycle optimization that can extend usable battery life by up to 3×.

PINN degradation models — electrochemical physics equations fused with ML to predict capacity fade with chemistry-specific precision.
Fire-precursor detection — thermal runaway risk flagged weeks ahead by correlating field signals back to material genomic traits.
Adaptive BMS optimisation — duty-cycle tuning recommendations delivered continuously to maximise usable capacity and lifetime.
📡
Digital Twin — Living Battery Model

Each pack has a continuously updated digital twin reflecting its genomic profile, operating history and real-time state — enabling proactive maintenance and warranty optimisation.

Real-Time SOHPredictive Maintenance
TCO & Warranty Intelligence

Connecting material quality to field outcomes lets OEMs price risk accurately, defend warranty decisions with data, and identify cost reduction opportunities across the supply chain.

Risk QuantificationSupply Chain Audit
🌐
API-First Integration Platform

REST and GraphQL APIs connect to MES, ERP, BMS, and fleet systems. Embedded analytics modules can be white-labeled directly into OEM dashboards for seamless deployment.

REST / GraphQLWhite-Label SDK
Market Applications

Where Digital DNA™ Creates Impact

Four mission-critical market segments. One unified genomic intelligence platform.

Primary Segment
220GWh
Gigafactories & Cell Manufacturers

Gigafactory operators face relentless pressure to hit yield targets while managing material variability across a complex global supply chain. Digital DNA™ delivers real-time genomic quality control — flagging incoming material deviations before they enter production, connecting electrode process parameters to cell formation outcomes, and creating the data foundation for autonomous manufacturing.

The result: fewer scrap cycles, fewer field recalls, and a factory that learns from itself shift by shift.

Manufacturing Intelligence
Segment 2
EV OEMs & Mobility Platforms

Chemistry-aware battery management means longer range, safer operation and accurate second-life valuations. Digital DNA™ integrates directly with BMS and fleet telematics for continuous genomic insight.

Vehicle Intelligence
Segment 3
BESS & Grid Storage Operators

Grid-scale storage demands precise SOH tracking and degradation forecasting. Genomic models optimize dispatch schedules and predict capacity fade years in advance.

Grid Intelligence
Segment 4
Material Suppliers & Upstream Partners

Material suppliers gain a quantified link between product quality and end-cell performance — a powerful, data-backed differentiator in a commoditizing market.

Supply Chain Intelligence
Underlying Technology

Built on Deep Science

Digital DNA™ is not a dashboard bolted onto commodity data. It is a purpose-built scientific computing platform grounded in materials physics, electrochemical engineering, and modern AI.

🧠
Physics-Informed MLPINN + Electrochemical Models
🔗
Blockchain ProvenanceImmutable Data Lineage
📊
Graph Neural NetworksSupply Chain Modeling
⚗️
Electrochemical AIDFT + Data Hybrid
☁️
Edge + Cloud AIBMS On-Device Inference
🔄
Federated LearningPrivacy-Preserving Fleet
🔍
Explainable AI (XAI)Regulatory-Ready Decisions
🛡️
ISO 26262 AlignedFunctional Safety Ready
Our Journey

From Concept to Global Platform

More than a decade of relentless materials science research, data engineering and AI development — converging into the world's most comprehensive battery intelligence platform.

2012 – 2016
Foundational Materials Research

Deep electrochemical and materials characterization programs initiated at C4V. Proprietary experimental datasets assembled across cathode chemistries, electrolyte systems, and failure modes — establishing the genomic foundation.

2017 – 2019
Platform Architecture & Industry Mapping

Complete supply-chain mapped from mine to end application. Core Genomic Thread™ architecture designed. First industry partnerships established. Multi-million data points connected and structured into the proprietary database.

2020 – 2022
AI Model Development & Validation

Physics-informed ML models trained on genomic datasets. Degradation prediction and fire-precursor detection algorithms validated against real-world field data. Digital Twin infrastructure deployed for first pilot customers.

2023 – 2024
Commercial Scale-Up

Platform expanded to cover EV OEM, BESS operator and gigafactory use cases. API-first architecture enables seamless integration with enterprise MES and BMS systems. Federated learning deployed across fleet customers.

2025 →
Global Genomic Intelligence Network

Digital DNA™ expands into a global, continuously learning genomic intelligence network — connecting gigafactories, OEMs, fleets and recyclers into a single, privacy-preserving data fabric that improves every battery ever made.

Ready to Unlock the
Genome of Your Battery?

Join leading gigafactories, OEMs and energy operators replacing guesswork with genomic certainty. Request a tailored demonstration of the Digital DNA™ platform.