Research on Automated Real-Time Prediction Market Settlement and Wallet Security Scanning Using AI-Exclusive OS Data @0G_labs, @Polymarket, @Rabby_io In the digital asset ecosystem, data collection, predictive judgment, market settlement, and wallet security may appear as separate domains, but in reality, they operate in tightly interconnected ways. Recently, a new architecture has emerged that integrates the data availability layer, prediction market infrastructure, and wallet security simulation system into a unified flow, centered around AI-exclusive operating environments. This architecture combines modular data availability and computation orchestration layers similar to 0G Labs, event-driven prediction market structures akin to Polymarket, and pre-trade simulation-based security models analogous to Rabby Wallet to automate real-time prediction market settlement and wallet security scanning. First, in the data layer, external events are ingested in real time. Data streams from news feeds, APIs, and structured sources are fragmented and distributed across storage nodes using erasure coding. Each data fragment is submitted to the consensus layer as a Merkle tree commitment, with verification performed via VRF-based random sampling. A majority of storage nodes must prove data existence; nodes that fail to provide proof are replaced. This structure ensures data availability and integrity through consensus mechanisms. AI does not determine data existence at this stage—data validation is handled entirely by cryptographic procedures and consensus protocols. Computation orchestration occurs on a marketplace similar to 0G Compute. GPU providers execute classification tasks within verifiable inference environments such as TeeML or ZKML. Inference results are committed on-chain as hashes without modifying or replacing the original data. The ~500ms block times reported on the Galileo V3 testnet demonstrate that inference anchoring can occur near-real-time. However, AI inference serves only as a suggestive signal and does not directly influence consensus-based data integrity or oracle finality. This data feeds into the prediction market layer. Following a structure similar to Polymarket, ERC-1155 tokens based on the Conditional Token Framework are used; each market is defined by a Condition ID derived from hashing the oracle, question, and outcome set. Participants deposit USDC.e as collateral and trade Yes or No position tokens. Prices are formed via an order book, reflecting collective participant judgment. AI classification results may serve as reference inputs for trading decisions, but price formation is determined solely by participant buy/sell activity. Upon event resolution, a structure similar to the UMA Optimistic Oracle activates. A proposer submits the outcome, with a default 2-hour challenge period. If a dispute arises, 24–48 hours of discussion are followed by approximately 48 hours of token holder voting. This process is publicly recorded on-chain, and the losing party forfeits their bond. Once a final payout vector such as [1,0] or [0,1] is confirmed, winning tokens are redeemed at 1 USDC.e each. This mechanism is explicitly designed so that final determination rests with a collective of oracle participants—not AI. On the user side, a wallet security system akin to Rabby Wallet operates. When a user attempts a transaction, a pre-simulation powered by the Tenderly API displays projected balance changes and call outcomes. Simultaneously, heuristic-based risk detection identifies malicious approval requests, phishing signatures, and anomalous contract patterns, triggering alerts. The approval exposure scanning feature audits existing token approval histories to assess risk exposure and supports bulk revocation. All of this occurs client-side, providing users with decision-making information before transaction execution. These three layers form a closed-loop system: external events are erasure-coded and stored in the data layer; AI generates classification signals anchored as hashes; market participants use this information to trade positions; user transactions undergo pre-simulation and risk analysis within the wallet before execution; upon event resolution, oracles finalize outcomes and settle payouts; and the confirmed results feed back into AI training loops. In this cycle, data integrity is upheld by the consensus layer, settlement neutrality by oracle participants, and user protection by the wallet simulation engine. Adversarial response protocols are also defined: data availability concealment is detected through sampling failures and remediated via VRF-based randomization and node replacement; attempts to manipulate oracles are countered through bond structures and token holder voting.Wallet simulation bypasses are mitigated by heuristic updates and revocation of approvals. AI data distortion is designed to be traceable through model version anchoring and public inference logs. From a performance perspective, each layer has distinct latency characteristics. AI inference can be processed within one second, while prediction market settlements require a minimum of two hours in the absence of disputes and several days if disputes arise. Wallet simulation adds a few additional seconds. This creates a structural gap between real-time data reflection and final settlement confirmation. This time differential functions as an essential component for neutral verification and open deliberation. Ultimately, the AI-specific OS-based data layer, prediction market settlement structure, and wallet security scanning system perform distinct roles while forming a cohesive flow. Data is cryptographically secured, AI provides advisory signals, oracles finalize outcomes through collective procedures, and wallets pre-validate user transactions. This integrated architecture simultaneously implements real-time information reflection, neutral settlement, and user protection within clearly separated responsibility boundaries. $POLY $POL $0G $USDC.e