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SubTerra AI

Well Log Intelligence on Bittensor.

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Tech Stack

Bittensor SDK

Description

SubTerra AI Well-Log Intelligence Subnet

Bittensor Subnet Ideathon Submission

Tagline: Well Log Intelligence, On-Chain

Description: SubTerra AI Well-Log Intelligence Subnet transforms well log interpretation for shale operators, targeting the $2.4B annual US spend where decentralized AI can cut interpretation costs by 80% while improving completion accuracy. Unlike traditional petrophysical analysis that takes 2-3 days and costs $5,000 per well, SubTerra delivers reservoir quality predictions in 5 minutes for $50-200.


Core Value Proposition

Miners compete to deliver "digital petrophysicists" that process standard LAS files (gamma ray, resistivity, density, neutron, sonic curves) into actionable insights: porosity profiles, permeability estimates, pay zone flags, and optimal completion intervals.

Validators score outputs against ground-truth production data, reducing completion uncertainty and improving EUR (estimated ultimate recovery) predictions by 20-30%.

This creates a decentralized alternative to Schlumberger Techlog and Halliburton Geographix with 10x better economics via miner rivalry.


Miner Tasks & Specialization

Miners respond to validator queries with structured outputs:

Well-Log Porosity Prediction

Predict effective porosity from log curves, calibrated to core samples. Methods: Machine learning regression, rock physics transforms, neural network ensembles.

Permeability Estimation

Estimate permeability from porosity-permeability transforms, accounting for lithology and fluid type. Methods: Coates-Dumanoir equations, ML on core-calibrated data, permeability-height products.

Pay Zone Identification

Flag intervals meeting cutoff criteria (porosity >6%, water saturation <50%, shale volume <35%). Methods: Multi-cutoff analysis, fuzzy logic, probabilistic classification.

Completion Quality Scoring

Rank zones by expected production using integrated petrophysical analysis. Methods: EUR prediction models, sweet spot mapping, fracture stimulation optimization.

Specialization paths let teams shine:

  • Statistical ML: Gradient boosting, random forests on log features

  • Deep Learning: LSTM/Transformers on sequential log data

  • Physics-Informed: Rock physics constraints, fluid substitution models

  • Multi-Well Analysis: Spatial interpolation between offset wells

  • Real-Time Processing: LWD (logging while drilling) interpretation

         Validators run standardized benchmarks:

  • Historical Replay: Feed Permian Basin wells with known production; score vs actual 90-day IP rates

  • Synthetic Challenges: Generate realistic noise-corrupted logs; measure recovery accuracy

  • Blind Tests: Partner-provided recent completions; compare predictions to actual results

  • Economic Ground Truth: Weight scores by ex-post EUR and finding costs                        

         Yuma Consensus allocates emissions based on composite score:

  • 40% technical accuracy (RMSE vs core/measured data)

  • 30% production prediction accuracy (vs actual EUR)

  • 20% compute efficiency (inference speed, cost per prediction)

  • 10% model diversity (non-correlated predictions improve ensemble)


Technical Architecture

Data Formats: LAS 2.0/3.0 (well logs), DLIS (digital log), ASCII, CSV

Input Size: 100KB-5MB per well (thousands of rows, 10-50 log curves)

Compute Profile: Standard gaming/consumer GPUs; 8GB VRAM minimum, 12GB optimal. CPU inference acceptable for batch processing. Result: 256 miners can participate vs 5-10 for seismic.

Axon Protocol: gRPC endpoints for well queries:

  • /predict_porosity - Return porosity curve

  • /estimate_permeability - Return permeability profile

  • /identify_pay_zones - Return flagged intervals

  • /score_completion - Return quality ranking

Subnet dTAO Economics: Launch with 200 TAO liquidity pool; miners stake 250 dTAO minimum for priority queuing on high-value jobs.


Revenue Model (Enterprise-Facing dApp)

API Subscriptions:

  • $500/mo for 25 wells (shale independents)

  • $2,000/mo for 150 wells (mid-size operators)

  • $10,000/mo unlimited (large independents, E&Ps)

Per-Well Pricing:

  • Quick Look: $50/well (5-min turnaround, single miner)

  • Standard: $200/well (ensemble of 10 miners, confidence intervals)

  • Premium: $500/well (expert review + uncertainty quantification)

Data Marketplace: Miners/validators contribute proprietary training datasets for curation bounties (paid in dTAO).

Target Clients:

  • Primary: Shale independents (Pioneer, Diamondback, Continental, EOG, Devon)

  • Secondary: PE-backed operators (Laredo, Matador, Centennial)

  • Pilot: Minnows with 5-20 rig programs first


Go-to-Market Path

MVP Launch (Q2 2026): Bittensor testnet with 50,000 public domain wells from FracFocus and state regulators

Pilot Program (Q3 2026): Partner with 3 shale operators for blind tests on recent completions

Mainnet Launch (Q4 2026): Register NetUID with 256 active miners, $10k/day GMV target

Subnet Registration: 300-500 TAO

dTAO Flywheel: Early wins → validator stakes → emissions → token price → miner capex → better predictions


Subnet Partnerships & Ecosystem

SubTerra plans to leverage 7+ existing Bittensor subnets for infrastructure, data, security, and distribution:

Data Layer

  • SN13 (Data Universe): Stores and curates well log datasets, provides training data infrastructure

  • SN22 (Desearch): Scrapes and aggregates data from public sources (FracFocus, USGS, state databases)

Infrastructure

  • SN64 (Chutes): GPU marketplace for elastic compute — miners rent GPUs on-demand

  • SN75 (Hippius): Storage and VPS hosting for validators and miner nodes

  • SN44 (Score): Computer vision for operations monitoring — safety compliance, equipment inspection

Security

  • SN60 (Bitsec.ai): AI security and model validation — protects against adversarial attacks

Sales & Distribution

  • SN71 (Leadpoet): Lead generation — identifies shale operator decision-makers, qualified lead bounties

Complete Stack: Data (Universe + Desearch) → Compute (Chutes) → Storage (Hippius) → Security (Bitsec) → Vision (Score) → Customers (Leadpoet)


Competitive Moats

Data Flywheel: User-submitted well logs → better training → superior models → more customers → more data.

Miner Diversity: Basin-specific specialists (Permian shales vs Marcellus gas vs Bakken oil).

Cost Edge: Decentralized GPUs 70% cheaper than on-prem HPC; 8GB gaming GPUs vs $50k workstations.

Auditability: All interpretations logged immutably on Bittensor chain for regulatory/compliance.

Speed Advantage: 5 minutes vs 2-3 days for traditional analysis.

Risks & Mitigation

Data Quality: Use only wells with verified production data; flag uncertain predictions
Compute Scaling: Cloud burst capacity for demand spikes
Market Education: Free tier to prove value before paid conversion
Competition: Scale fast; data flywheel creates winner-take-most dynamic

Upside: First subnet to crack shale log interpretation unlocks $100M+ ARR potential


Why This Wins

  • Real problem: $2.4B spent annually, pain is acute

  • Bittensor-native: Perfect fit for distributed inference on small tasks

  • Defensible: Domain expertise + data flywinner

  • Profitable path: Clear customer willingness to pay, fast sales cycle

  • Achievable: 6-month MVP vs 18-month for seismic

This is a business disguised as research, not research disguised as a business.


Progress During Hackathon

  • Data pipeline: LAS → PyTorch dataloaderBaseline model: LSTM on 1,000 wells

  • Validation framework: Compare predictions to production data

  • Web interface: Upload well, get prediction

  • Miner client: Python inference script

  • Team: Petrophysicist + ML Engineer + BD Lead

Fundraising Status

Bootstrap SubTerra with Bitstarter crowdfunding platform via TAO community pledges.

Team Leader
YYVR Trader
Project Link
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EthereumEthereum
Sector
InfraAI