OGPU Smart Contracts

🛠 Smart Contract Infrastructure for OpGPU
To deliver a decentralized GPU rental marketplace, OpGPU leverages a suite of modular smart contracts deployed on a high-performance EVM-compatible blockchain (e.g., Ethereum L2 or sidechain). These contracts automate the coordination, validation, and incentivization of interactions between GPU Providers, Clients, and the OpGPU Network.
📜 Key Smart Contracts and Their Roles
1. TaskManager.sol
Purpose: Orchestrates the creation, bidding, assignment, and completion of GPU tasks.
Key Functions:
submitTask(taskMetadata, budget, duration)
: Client submits a job request.placeBid(taskId, providerId, price)
: Providers offer computational services.assignProvider(taskId, providerId)
: Assigns the best-fit provider based on trust score and pricing.verifyCompletion(taskId, resultHash)
: Called by oracles or verification nodes to validate task output.finalizePayment(taskId)
: Triggers payment from escrow to provider upon task approval.
2. StakingVault.sol
Purpose: Handles staking of oGPU tokens by both providers and clients to enforce commitment and reduce spam.
Key Features:
Providers stake to increase visibility and reputation.
Clients stake to commit to task budget.
Slashing mechanism for malicious or failed behavior.
3. PaymentEscrow.sol
Purpose: Manages secure, time-locked, and conditional payment flows.
Workflow:
oGPU tokens are locked when a task is created.
Released only when verified as successfully completed.
If a dispute arises, funds are held until DAO arbitration.
4. ReputationRegistry.sol
Purpose: Tracks and maintains scores for all participants based on past performance, completion rate, and user feedback.
Mechanics:
Points added for timely, high-quality task delivery.
Penalized for incomplete or incorrect outputs.
DAO can review disputed scores for transparency.
5. GovernanceDAO.sol
Purpose: Allows token holders to vote on protocol-level decisions (e.g., fee structure, contract upgrades, slashing conditions).
Integrates With: Snapshot or Tally for off-chain voting, plus on-chain execution logic.
🔐 Security and Design Considerations
Modular Contracts: Each component is upgradeable via proxy patterns (e.g., OpenZeppelin’s UUPS).
Oracle Integration: For external verification (e.g., hash comparison, latency checks).
ZKP or MPC Layer (Future): For privacy-preserving computation verification (especially for AI models and sensitive data).
Failsafes: Watchdog contracts + emergency circuit breakers for high-value tasks.
🚀 Outcome: Fully Trustless Compute Market
With this smart contract infrastructure, OpGPU enables a self-sustaining, censorship-resistant, and fair marketplace for decentralized computing — where:
Anyone can contribute idle GPU power.
Workflows are automated without intermediaries.
Payments and penalties are enforced transparently.
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