Pons L3
Transactions execute inside the Pons network with a dedicated sequencer and EVM-compatible state.
NETWORK
Pons L3 is designed as an EVM-compatible Arbitrum Orbit chain above Robinhood Chain, bringing launch, liquidity, trading, and applications into one execution environment.
The chain is specialized around Pons without creating a proprietary contract environment. Developers keep EVM semantics while users get a network shaped around market activity.
Transactions execute inside the Pons network with a dedicated sequencer and EVM-compatible state.
Batches, bridge messages, and settlement commitments are posted to the parent environment.
The parent chain ultimately inherits Ethereum settlement, placing Pons L3 inside the same layered security path.
The proposed network uses the Arbitrum Orbit / Nitro stack. Nitro provides EVM-equivalent execution, compressed transaction batches, and the same developer interfaces used across Ethereum tooling.
Contracts are written in Solidity and interact through standard JSON-RPC. Pons-specific launch and market contracts sit at the application layer rather than changing EVM behavior.
A primary sequencer orders transactions and returns fast soft confirmations. The launch configuration starts with an operator-managed sequencer, followed by redundancy, independent monitoring, and a documented outage procedure before mainnet.
Robinhood Chain is the proposed parent. Pons L3 contracts on Robinhood Chain receive assertions, bridge messages, and dispute-related state. Ethereum remains beneath Robinhood Chain as the final settlement layer.
4663The canonical bridge moves the native gas asset and supported tokens between Robinhood Chain and Pons L3. Deposits create retryable messages on the L3; withdrawals return through the Orbit outbox and their configured confirmation period.
The bridge interface will live at bridge.pons-l3.network. It remains unavailable until parent contracts and the rollup configuration are deployed.
Pons L3 can use ETH or a custom ERC-20 native gas token supported by Orbit. The final asset, address, fee collector, and conversion assumptions must be fixed before chain deployment because they affect bridging and node configuration.
Mainnet requires more than a running sequencer. The launch gate includes parent contracts, validator configuration, forced-inclusion paths, bridge verification, key separation, backups, monitoring, rate-limited public RPC, and an independently reproducible chain configuration.