Current smart contracts are stuck within the execution limits of a single block. They can only access the current state and can't handle complex computations. @brevis_zk uses a ZK coprocessor to enable smart contracts to trustlessly access any historical data, execute computations of unlimited complexity, and then verify the results on-chain with ZK proofs. ————————————————————————— The core lies in the three-layer architecture design: zkFabric collects all block headers and generates ZK consensus proofs. zkQueryNet handles data query requests from dApps. zkAggregatorRollup stores verified block headers. The modular design allows Brevis to handle completely different workloads simultaneously, such as AI inference, cross-chain verification, and historical data analysis. ————————————————————————— Practical application examples: In the Uniswap v4 prototype, Brevis calculates each trader's 30-day trading volume off-chain, then verifies it on-chain and applies dynamic fee tiers. Decentralized exchanges can finally offer "VIP" features that are fully transparent and verifiable. Linea's 1 billion token incentive program achieves verifiable distribution through Brevis. A fundamental shift from "trust but verify" to "trustless and verifiable." ————————————————————————— Anyone can contribute computing power, and any dApp can gain unlimited computational capabilities. @brevis_zk is redefining the concept of ZK.