Flare Confidential Compute uses Trusted Execution Environments (TEEs) to process private data offchain, sign transactions across chains and produce attestations that smart contracts can verify. This tool helps developers inspect the machines running their extensions and troubleshoot deployments. Start building: dev.flare.network/fcc/overvi…

Flare’s approach to XRP interoperability goes much further than simply bridging XRP into another ecosystem. The @XRP starts on XRPL. Flare turns it into FXRP through FAssets, with the underlying XRP still backing it. FXRP can then move to @ethereum through its OFT setup and be used as collateral in Morpho, where borrowers access RLUSD liquidity. So the credit market can live on Ethereum while XRP stays native to XRPL and @FlareNetworks handles the layer that makes the asset programmable and portable.

FDC attestation fees are now the fastest-growing source of FIRE revenue. The Flare Data Connector is not just infrastructure sitting underneath Flare. Applications actually using it to verify external events are creating measurable demand for the protocol itself. FXRP is already one of the clearest examples of that model working: external XRP activity gets verified on Flare, becomes usable by smart contracts, and the data layer gets paid along the way. More data requests means more protocol revenue.

Flare is built around the idea that data should be part of the network itself. The validators securing Flare also provide FTSO prices and verify external events through FDC. That gives applications native access to market data and cross-chain proofs from the same underlying provider infrastructure. FXRP shows how that architecture works in production. FDC verifies the XRP payment on XRPL, FTSO prices the collateral securing the system, and the system can mint FXRP only after the payment is proven. Around 145M FXRP is in circulation, with roughly 129M deployed across DeFi. FCC extends the stack to private data and computation, using the same provider set and signing policy that underpin FTSO and FDC. Smart Accounts then let an XRPL transaction carry instructions that can be proven by FDC and executed through the user’s account on @FlareNetworks. These pieces compose: prices, external proofs, programmable assets, private data and user execution are all part of the same architecture.

Start building with Flare Smart Accounts using our developer guides: dev.flare.network/smart-acco…