Stablecoin reserves that stay whole. Operator defaults slash committed
collateral, not reserves.
The Problem
Credit Risk Is The Business Model
Yield-bearing stablecoins lend reserves to operators who deploy capital into strategies. Yield comes from credit risk. Every yield-bearing stablecoin is fundamentally a lending protocol maintaining a peg.
When backing fails under redemption pressure, collapse is immediate. The vulnerability isn't unique to algorithmic models: any stablecoin lending reserves without enforceable repayment guarantees carries the same structural risk.
Reserves Protected by Design
Operator Guarantees
Before accessing reserves, operators commit collateral through Symbiotic. Collateral locks for the full loan duration. Operators cannot drain reserves mid-obligation.
Automated Loss Absorption
Operator defaults trigger automatic slashing. Staker collateral redistributes to cover shortfalls. Reserves stay whole at settlement speed.
Holder Protection
Stablecoin holders earn yield without bearing credit risk. Stakers absorb operator risk in exchange for returns. Defaults slash staker collateral. Reserves stay collateralized.
The peg holds.
Build stablecoin products that hold the peg.
Yield-Bearing Stablecoins
Holders earn yield. Operators compete for reserve access. Stakers absorb credit risk. Reserves stay whole regardless of operator performance.
Credit-Backed Issuance
Mint stablecoins where every loan backs issuance with enforceable guarantees. Reserves are transparent and structurally protected. Scale is a function of committed capital, not reputation.
Reserve Protection
Add committed collateral as a protection layer for existing stablecoins. Enforce reserve integrity without redesigning the protocol.
Operator-Backed Models
Operators post committed collateral before accessing reserves. Access is earned through commitment, not track record alone.
Start building
Build Stablecoin
Infrastructure
Complete integration guides, API references, and architecture specifications.