AISecureFundDAO: Next-gen DAO governance combining encrypted voting, TEE-secured processing, and AI-driven insights for fully private, verifiable on-chain decisions.
đź”’ Core Architecture
- Privacy-First Voting: Homomorphic encryption ensures votes remain confidential while enabling transparent tallying.
- TEE-Enabled Trust: Marlin’s Trusted Execution Environment processes encrypted votes/bids in secure enclaves.
- AI Governance: Nethermind’s agentic AI analyzes proposals/voting patterns for strategic insights without exposing sensitive data.
- Sealed-Bid Auctions: Confidential treasury allocation prevents front-running via encrypted bids decrypted only in TEE.
- Proof-Based Verification: Cryptographic attestations validate TEE computations without revealing raw data.
⚙️ Technical Implementation
- Modular Contracts:
ProjectRegistry
| PrivateVoting
| SealedBidAuction
ResultVerification
| Treasury
- TEE Integration: Marlin’s secure environment handles vote/bid decryption, tallying, and attestation generation.
- Zero-Knowledge Storage: 0G ensures metadata persistence while maintaining encryption for auditability.
- AI Layer: Risk/benefit analysis via Nethermind’s models trained on anonymized governance patterns.
🛠️ Key Innovations
- Dual Privacy: Votes/bids encrypted on-chain, decrypted only in TEE.
- Cross-Protocol Security: Combines homomorphic encryption (data privacy) + TEE (compute integrity) + blockchain (immutable ledger).
- Governance-as-a-Stack: Modular smart contracts enable custom governance flows (funding, auctions, verification).
Impact: Solves critical DAO challenges:
- 🛡️ Prevents voter coercion via full privacy
- 🔍 Enables auditability without exposing individual choices
- 🤖 Enhances decision quality via AI-powered insights
- đź’° Secures treasury allocation against MEV exploits
AISecureFundDAO was built using a multi-layered architecture that combines smart contracts, secure computing, and AI:
Smart Contract Layer
- Solidity (v0.8.26): Core contracts deployed on Arbitrum Sepolia
- Contract Separation: Five specialized contracts handle different governance functions:
ProjectRegistry.sol
: Proposal submission and metadata management
PrivateVoting.sol
: Encrypted vote collection with TEE integration
SealedBidAuction.sol
: Confidential treasury allocation
ResultVerification.sol
: Cryptographic proof validation
Treasury.sol
: Fund distribution based on verified results
Privacy Layer
- Homomorphic Encryption: Custom implementation for client-side vote encryption
- Bytes32 Storage Pattern: Encrypted votes stored as bytes32 to ensure on-chain privacy
- Front-End Encryption: Vote encryption happens in the browser before submission
TEE Integration (Marlin)
- Marlin TEE: Implemented secure vote and bid processing within Trusted Execution Environment
- Attestation Generation: Created cryptographic proofs to verify TEE computations
- Challenge: Bridged blockchain data to TEE by developing a Python script that fetches encrypted votes directly from contract storage
Private AI Analysis (Nillion)
- Nillion SecretLLM: Integrated secret-preserving LLM to analyze voting patterns while maintaining privacy
- Confidential Insights Generation: Used Nillion's technology to process governance data without exposing sensitive voter information
- TEE-to-Nillion Bridge: Built connector between Marlin TEE outputs and Nillion's secret computing environment
AI Governance (Nethermind)
- Static Agent Implementation: Developed DAO-specific agentic AI specialized for governance insights
- React Integration: Built custom NethermindAIPanel component for the frontend
- Proposal Analysis: AI provides detailed risk assessments, benefit analysis, and strategic recommendations
Storage & API (0G)
- Key-Value Storage: Implemented persistent storage for vote results and AI insights
- Metadata Management: Designed schema for governance data with proper indexing
- FastAPI Backend: Created lightweight API to expose TEE-processed results
Frontend
- React/TypeScript: Built responsive governance UI
- Viem/ethers.js: Integrated web3 functionality for contract interactions
- TEE Visualization: Implemented animated component showing secure vote processing
Integration Challenges
- TEE Vote Parsing: The encrypted votes from the blockchain arrived as raw bytes32 values instead of JSON, requiring a custom parser to handle both formats
- Non-Checksum Addresses: Web3.py required proper checksum conversions for contract interactions
- Cross-Type Compatibility: Built adaptors between React frontend and Python backend
By combining these technologies, we created a governance system that maintains privacy, security, and verifiability throughout the entire voting lifecycle.