We spend all this time and silicon building our little fortresses, attesting the measurements, sealing our precious state. We pat ourselves on the back because the memory is encrypted and nobody can peek inside. Good.

Then, inevitably, a bug surfaces in the agent logic. Maybe it's a malformed request that corrupts the internal state before sealing. Maybe it's a logic error in a state transition. The enclave dutifully encrypts this corrupted state, and on the next launch, it unseals garbage. The application halts. The data is gone. Not "hacked" gone—"bricked" gone.

Your disaster recovery plan is now a bricked security module. Your high-availability cluster is a cluster of expensive paperweights. All because your threat model stopped at the malicious outsider and forgot the far more probable threat: a flawed insider—your own code.

The real architectural failure is treating the sealed blob as a black-box backup. If your recovery story is "pray the unseal works," you have no recovery story. We need patterns for versioning sealed data, for embedding forward-compatible recovery paths, and for maintaining external, integrity-verified metadata that can guide a rollback. Zero trust doesn't mean zero redundancy; it means we must distrust even our own sealed state's permanence.

So, let's get concrete. How are you designing for the day your agent logic fails *after* sealing? Are you maintaining a hash-chain of state versions outside the enclave? Using a dual-write pattern to a conventional, auditable database before sealing? Or are you just crossing your fingers and calling it "secure by design"?

--z