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RadTensorRadiology Intelligence Subnet
Bittensor Subnet Ideathon -- Patent Pending

Turning Real-World Radiology Into TAO Demand

RadTensor is a vendor-neutral radiology subnet on Bittensor that routes de-identified imaging exams from hospital PACS to competing AI miners -- the first enterprise-scale fiat subnet.

Read the Full 205-Section Technical Proposal
$45B+AI Imaging TAM by 2030
3.6B+Imaging Exams / Year
HIPAACompliant by Design
US 63/720,155Patent Pending
The Problem

Radiology AI is broken by centralization

Billions of imaging exams per year. Billions in AI spend. Yet healthcare providers are locked into expensive, inflexible systems that block innovation and limit access.

Vendor Lock-In

Hospitals are trapped in rigid, single-vendor AI contracts with proprietary PACS integrations. Switching costs are enormous, and innovation is stifled.

Prohibitive Costs

Implementation costs run $100K-$500K+ per site. Per-study AI fees of $3-8 add up to six-figure annual costs even at moderate volumes.

Legacy Infrastructure

PACS and VNA systems were never designed to connect to modern AI networks. Every AI vendor requires a custom, expensive point-to-point integration.

Compliance Gaps

Sending imaging data to external AI services without robust de-identification, encryption, and audit trails creates unacceptable regulatory risk.

RadTensor inverts this model. Instead of centralized SaaS, it exposes radiology AI as a competitive, decentralized marketplace on Bittensor -- vendor-neutral, usage-based, and compliant by design.

System Architecture

Patent-Pending Gateway Architecture

Based on US Patent Application No. 63/720,155 (QRad), RadTensor bridges PACS/VNA systems to a decentralized AI marketplace on Bittensor.

RadTensor Gateway

Node 003

Central hub orchestrating imaging data flow between radiology systems and the Bittensor subnet. Vendor-neutral, modular, API-driven.

End-to-End Data Flow

DICOM
ScannersPACS/VNAGateway
Encryption
Compliance
Routing
De-ID
AI Miners007
Validators009
Quantum006
Validated
BackendPACSRadiologist
Bittensor Integration

Purpose-built for the Bittensor network

RadTensor maps directly onto Bittensor's miner/validator architecture with a radiology-specific proof-of-effort mechanism designed for clinical accuracy.

AI Miners: Compete on Clinical Accuracy

Miners on the RadTensor subnet execute specialized AI models on de-identified radiology tasks. Each miner can specialize in particular modalities, body regions, or task types.

Task Specialization

  • Chest X-ray triage
  • CT brain hemorrhage detection
  • Mammography screening
  • QA on image orientation & labeling

Standardized I/O

  • De-identified image data or derived feature tensors
  • Modality & body region metadata
  • Per-label pathology probabilities
  • Anomaly flags & heatmap references

Performance Metrics

  • Diagnostic accuracy (AUROC)
  • Latency & throughput
  • Calibration quality
  • Compliance with PHI constraints

Task Assignment & Reward Loop

1
Gateway forms tasksDe-identify & structure
2
Route to minersPerformance-based selection
3
Miners return outputsStructured predictions
4
Validators scoreGold-standard + ensemble
5
Emit rewardsTAO-denominated payments

This loop runs continuously, ensuring RadTensor's incentive structure remains closely aligned with clinical value.

Total Addressable Market

The fiat-to-TAO revenue engine

Radiology imaging is mandatory, central to healthcare, and funded by national health systems and insurance. This is not speculative traffic -- it is embedded, reimbursable clinical demand.

3.6B+

Annual Imaging Exams

Global diagnostic imaging volume across X-ray, CT, MRI, ultrasound, and PET modalities.

$45B+

AI Imaging Market by 2030

Projected AI in medical imaging market with high double-digit CAGR from the mid-2020s.

$100K-500K

Per-Site AI Cost Today

Current implementation costs including PACS integration, licenses, and support contracts.

$3-8

Per-Study AI Fee

Current per-study pricing from centralized vendors, creating six-figure annual bills at moderate volumes.

RadTensor Revenue Scenarios

Conservative estimates at $3-8 net protocol revenue per exam

PhaseGlobal CoverageAnnual ExamsEst. Revenue
Proof of Value0.1%3.6M$10-30M
Regional Penetration1%36M$100-300M
Mature Phase3%108M$300M-900M

Why RadTensor is Different

Unlike speculative or crypto-native subnets, RadTensor is backed by mandatory clinical workflows. Imaging volumes are not discretionary -- they are embedded in healthcare delivery. This means continuous, predictable, high-value external revenue flowing into the Bittensor network.

The Fiat-to-TAO Bridge

Institutions pay per-exam in fiat. RadTensor converts this into TAO-denominated rewards for miners and validators. Even 1% of global imaging volume creates hundreds of millions in annual protocol revenue -- a direct, sustainable bridge between healthcare spending and the Bittensor economy.

Intellectual Property

Patent-pending gateway technology

RadTensor's gateway architecture is based on US Patent Application No. 63/720,155 (QRad), covering the vendor-neutral radiology integration system that bridges PACS to decentralized AI.

US Patent Application No. 63/720,155

QRad Vendor-Neutral Radiology Integration System

Controlled by Project Lead -- Michael John Parker

FIG. 1

System Workflow Overview

End-to-end workflow showing imaging data flow from PACS through the RadTensor gateway, security modules, AI/quantum processing, validation, and reintegration into clinical systems.

FIG. 2

High-Level Functional Architecture

Simplified overview: imaging data from modalities to PACS, through the RadTensor gateway to AI/quantum processing, returning validated results to radiologists.

FIG. 3

Marketplace & Provider Selection

Healthcare providers configure workloads via the marketplace interface. Miners and external services compete as computational providers in a vendor-neutral ecosystem.

FIG. 4

Secure Data Flow Framework

Integration between PACS, marketplace, cloud connectivity, encryption, compliance logging, and dynamic routing to AI/quantum processors.

FIG. 5

Processing & Validation Pipeline

Data processing workflow from the core node through cloud connectivity, routing, security modules, validation checkpoints, to AI and quantum processors.

FIG. 6

Reintegration & End-User Delivery

Final stage: validated outputs flow from RadTensor back to clinical data stores and radiologists, with optional human-in-the-loop validation.

Why the Patent Matters for Bittensor

Defensible Moat

Patent-pending architecture gives RadTensor a defensible position in the radiology AI integration space, protecting the subnet's value proposition.

Open Subnet, Protected Gateway

The subnet itself is open on Bittensor, but the gateway IP ensures commercial deployments benefit the RadTensor ecosystem specifically.

Enterprise Credibility

Healthcare institutions require IP protection and legal clarity. The patent signals institutional-grade commitment to potential adopters.

Go-To-Market

From testnet to global radiology standard

RadTensor targets high-need, high-volume radiology segments where AI augmentation delivers clear clinical value and institutions are already exploring AI tools.

Phase 1

Proof of Value

Targeted Early Adopters

  • Deploy gateway at 3-5 high-volume teleradiology groups
  • Focus on chest X-ray triage and CT brain hemorrhage
  • Demonstrate technical, regulatory, and financial viability
  • Process millions of exams/year through testnet then mainnet
Phase 2

Regional Penetration

Integration Partnerships

  • Partner with PACS vendors and enterprise imaging providers
  • Expand to outpatient imaging centers and regional networks
  • Standardize QA and triage protocols across institutions
  • Handle tens of millions of exams per year
Phase 3

Mature Scale

De Facto Standard

  • Function as standard routing layer for radiology AI
  • Multi-vendor, multi-region coverage
  • Deeper integration with reporting and reimbursement
  • Nontrivial percentage of global imaging volume

Target Early Adopters

Teleradiology Groups

Large overnight and overflow reading operations with high volume and clear AI-augmentation ROI.

Outpatient Imaging Centers

High-throughput CT and MRI facilities seeking cost-effective AI triage and QA.

Regional Hospital Networks

Networks looking to standardize AI-assisted triage and quality protocols across sites.

Early Participation Incentives

Preferential Pricing

Below-market per-exam rates for early adopter institutions that deploy the RadTensor gateway.

Increased Reward Shares

Higher TAO allocation for early data contributors providing labeled cases for gold-standard evaluation sets.

Clinical Advisory Council

Early adopters join a council that shapes task definitions, evaluation criteria, and the RadTensor roadmap.

Open Source Subnet

Explore the codebase

The subnet protocol is fully open. The patent-pending gateway creates a defensible commercial layer while keeping miner/validator participation decentralized.

radtensormain
View on GitHub

protocol.py

radtensor/protocol.py

Synapse definitions -- RadTensorTask, HealthCheck, ComplianceAudit

reward.py

radtensor/reward.py

Composite scoring function: accuracy, latency, calibration, format

miner.py

radtensor/neurons/miner.py

Reference miner with model registry and task-specific inference handlers

validator.py

radtensor/neurons/validator.py

Reference validator with gold-standard scoring, canary jobs, weight updates

mechanism-design.md

radtensor/docs/mechanism-design.md

Full incentive and mechanism design specification

gateway-architecture.md

radtensor/docs/gateway-architecture.md

Patent-pending gateway architecture: modules, data flow, security model

6

Core Files

3

Synapse Types

4

Scoring Dimensions

Bittensor Subnet Ideathon

The most direct path from fiat to TAO

RadTensor converts billions in real-world radiology spend into Bittensor network value. Join us in building the first enterprise-scale medical imaging subnet.

$10K

Hackathon Prize

1000 TAO

~$260K Discretionary Fund

$5K

Compute Credits

Direct

Bitstarter Accelerator Entry