Proving how things were made—without revealing how you made them
The Problem
The Certification vs. IP Protection Dilemma
Industries face an impossible choice:
- Regulators demand transparency: "Show us your AI training data, model parameters, and decision process"
- Businesses need IP protection: "We can't reveal our proprietary pipeline or competitive advantages"
- Current solution: Choose between compliance and competitive moat
Real-world blockers:
- AI/ML: FDA wants to see model training process → Can't reveal proprietary architectures
- Manufacturing: ISO 9001 requires process documentation → Can't expose trade secret recipes
- Research: Journals require reproducibility → Can't share sensitive experimental data
- Healthcare: HIPAA compliance requires audit trails → Can't reveal patient information
Result: Regulated industries avoid adoption of advanced techniques because verification requires total transparency.
The Innovation
Three-level selective disclosure (A/B/C) solves the "certification vs IP" dilemma:
GenesisGraph enables cryptographically verifiable provenance where you choose exactly what to reveal:
Level A: Full Disclosure (Open Science)
Use when: Open source projects, public research, transparency required
# Show everything: full pipeline, parameters, intermediate results
operations:
- id: train
tool: pytorch
parameters:
learning_rate: 0.001
batch_size: 32
epochs: 100
inputs: [training_data]
outputs: [model_v1]
Level B: Partial Envelope (Verified Privacy)
Use when: Prove constraints without exact values
# Reveal that constraints were met, hide exact parameters
operations:
- id: train
tool: pytorch
sealed_parameters:
# Hash of actual parameters
digest: "sha256:abc123..."
# Provable constraints
constraints:
- "learning_rate < 0.01"
- "batch_size >= 16"
- "epochs >= 50"
inputs: [training_data] # Can seal these too
outputs: [model_v1]
Level C: Sealed Subgraph (Zero-Knowledge)
Use when: Hide entire pipeline segments, prove policy compliance only
# Replace proprietary pipeline with Merkle root commitment
sealed_subgraph:
root_hash: "sha256:def456..."
inputs: [raw_data] # Show what went in
outputs: [final_model] # Show what came out
policies:
- claim: "FDA 21 CFR Part 11 compliant"
signature: "..."
- claim: "No PII in training data"
signature: "..."
The magic: Cryptographic commitments (Merkle trees, hash chains) enable proving properties without revealing values.
Quick Example: AI Model with Trade Secret Protection
Scenario: Train AI model with proprietary architecture, prove FDA compliance, protect IP.
from genesisgraph import GenesisGraph, Entity, Operation, SealedSubgraph
gg = GenesisGraph(spec_version="0.3.0")
# Level A: Public data preprocessing (show everything)
gg.add_operation(Operation(
id="preprocess",
tool="pandas",
parameters={"method": "normalize", "axis": 0},
inputs=["raw_data"],
outputs=["clean_data"]
))
# Level C: Proprietary training pipeline (seal completely)
gg.add_sealed_subgraph(SealedSubgraph(
root_hash="sha256:abc123...",
inputs=["clean_data"],
outputs=["model_v1"],
policies=[
{"claim": "FDA 21 CFR Part 11 compliant", "signature": "..."},
{"claim": "No patient PII in training data", "signature": "..."},
{"claim": "Model accuracy > 95% on validation set", "signature": "..."}
]
))
# Level A: Public model evaluation (show everything)
gg.add_operation(Operation(
id="evaluate",
tool="sklearn",
parameters={"metrics": ["accuracy", "f1"]},
inputs=["model_v1", "test_data"],
outputs=["evaluation_report"]
))
# Export provenance graph
gg.save_yaml("ai_pipeline.gg.yaml")
What regulators see:
- ✅ Complete audit trail (inputs → sealed training → outputs → evaluation)
- ✅ Cryptographic proof of policy compliance (FDA 21 CFR Part 11)
- ✅ Verifiable integrity (Merkle tree commitments)
What competitors don't see:
- ❌ Proprietary training architecture
- ❌ Hyperparameter optimization strategy
- ❌ Custom loss functions
- ❌ Data augmentation techniques
Both verified with cryptographic certainty.
Status & Adoption
Current Version: v0.3.0 (Production-Ready)
Production Metrics:
- ✅ 363 comprehensive tests across all modules
- ✅ 76% overall test coverage (up from 71% in v0.2)
- ✅ 98% SD-JWT coverage - IETF standard selective disclosure
- ✅ 99% BBS+ coverage - Zero-knowledge credential proofs
- ✅ 97% ZKP templates coverage - Range proofs, membership proofs
- ✅ 90% DID support - Multi-method decentralized identity (did:key, did:web, did:ion, did:ethr)
Novel Research Contributions:
-
Three-Level Selective Disclosure Model (A/B/C)
- Level A: Full transparency for open science
- Level B: Constraint proofs without exact values (SD-JWT)
- Level C: Sealed subgraphs with policy assertions (Merkle commitments)
- Industry first: Unified framework spanning full transparency → zero-knowledge -
Merkle Tree Provenance Commitments
- Hash-only lineage for proprietary pipeline segments
- Selective exposure of input/output digests
- Optional inclusion proofs without revealing full tree
- RFC 6962 transparency log integration -
Industry-Specific Profile Validators
- gg-ai-basic-v1: AI/ML pipeline validation (FDA 21 CFR Part 11 compliance)
- gg-cam-v1: Computer-aided manufacturing (ISO 9001:2015 compliance)
- Automated compliance checking for regulated industries -
Cryptographic Privacy Features
- SD-JWT (Selective Disclosure JWT) for claim-level privacy
- BBS+ signatures with unlinkable selective disclosure
- Holder binding prevents credential replay attacks
- Predicate proofs (e.g., "age > 21" without revealing exact age)
What This Unlocks:
- Regulated AI adoption - FDA/EMA approval without IP disclosure
- Manufacturing compliance - ISO 9001 certification with trade secret protection
- Research reproducibility - Verify methods without sharing sensitive data
- Healthcare audit trails - HIPAA compliance with patient privacy
SDKs Available:
- Python SDK: pip install genesisgraph (93% coverage)
- JavaScript/TypeScript SDK: npm install @genesisgraph/sdk
- Full builder API, validation, DID resolution, signature verification
v1.0 Release Timeline: Active development
- Enterprise adoption (Fortune 500 pilots)
- Standards body submission (W3C, IETF)
- Blockchain integration (Ethereum, Hyperledger)
Technical Deep Dive
Full Documentation:
- GenesisGraph GitHub Repository
- Complete Specification
- Disclosure Levels Guide - A/B/C model explained
- Selective Disclosure Cryptography - SD-JWT, BBS+, ZKP
- Profile Validators - Industry compliance
Example Gallery:
- AI/ML Pipelines
- Manufacturing Workflows
- Research Reproducibility
Getting Started:
pip install genesisgraph
genesisgraph validate workflow.gg.yaml --verify-profile
Part of SIL's Semantic OS Vision
GenesisGraph's Role in the 7-Layer Semantic OS:
- Layer 2 (Structures): Provenance data structures
- Directed acyclic graphs (DAGs) for process lineage
- Merkle trees for cryptographic commitments
-
Hash chains for temporal ordering
-
Layer 3 (Composition): Provenance graph composition
- Graphs compose: Subgraphs seal and embed in larger workflows
- Selective disclosure composes: Mix A/B/C levels in single graph
-
Policy assertions compose: Multiple compliance claims per operation
-
Cross-Cutting Concern: Provenance infrastructure across all layers
- Enables verifiable transformations at every layer (primitives → intelligence)
- Universal audit trail for semantic operations
- Foundation for trustworthy AI and autonomous systems
Composes With:
- Pantheon (Layer 3): Provenance-aware IR - Track semantic graph transformations
- Morphogen (Layer 1/4): Deterministic execution - Provenance for computational workflows
- Agent Ether (Layer 6): Multi-agent systems - Verifiable agent actions and decisions
- All SIL projects: Universal provenance layer enables "show your work" across the stack
Architectural Principle: Verification Without Revelation
GenesisGraph proves that privacy and verifiability are not opposites—they're composable. When you can cryptographically commit to properties without revealing values, compliance and competition can coexist.
The Innovation:
Most provenance systems are binary (public or private). GenesisGraph introduces a spectrum of disclosure (A/B/C) that adapts to context:
- Open science: Full transparency builds trust
- Regulated industries: Prove compliance, protect IP
- Competitive markets: Selective disclosure enables verification without revelation
This solves adoption blockers in regulated industries where existing provenance standards force impossible choices.
Impact: Real-World Adoption Paths
Before GenesisGraph:
- Prove FDA compliance → Reveal proprietary AI architecture → Lose competitive advantage
- ISO 9001 certification → Expose manufacturing trade secrets → Competitors clone process
- Research reproducibility → Share sensitive patient data → HIPAA violation
With GenesisGraph:
- Seal proprietary pipeline segments (Level C)
- Prove policy compliance cryptographically (Merkle commitments, signatures)
- Regulators verify integrity, competitors see only commitments
- First technology that enables verification without revelation at scale
Use Cases Enabled:
-
AI/ML Pipelines
- FDA/EMA approval for medical AI without exposing training process
- Model cards with verifiable provenance (training data lineage, bias testing)
- Responsible AI compliance (fairness, transparency, accountability) -
Manufacturing & Supply Chain
- ISO 9001 certification with trade secret protection
- Quality control audit trails (machine calibration, tolerance tracking)
- Supplier verification without revealing proprietary recipes -
Scientific Research
- Reproducible research with sensitive data protection
- Peer review with selective disclosure (methods public, data sealed)
- Clinical trials with patient privacy (HIPAA compliance) -
Enterprise IT
- Software supply chain security (SBOM with selective disclosure)
- DevOps audit trails (deployment provenance, compliance checks)
- Zero-trust architectures with verifiable process lineage
Adoption Metrics (v1.0 Goals):
- 10+ Fortune 500 pilots across AI, manufacturing, healthcare
- 2+ standards body submissions (W3C, IETF)
- 100+ open source projects integrating GenesisGraph SDKs
Version: 0.3.0 → 1.0 (Active Development)
License: Apache 2.0
Status: Production-ready with enterprise adoption path
Learn More:
- GitHub Repository
- 5-Minute Quickstart
- Vision & Roadmap