#baby I recently watched the TBV of @BabylonLabs_io .
I stopped obsessing over what gets written into the deposit page.
Instead, I focused on what happens after the Provider disappears.
The answer is hidden in the WOTS keypair and the claimer artifacts.
When the Vault is created.
The user receives a one-time signing key.
As well as a complete set of pre-signed transactions and challenge data.
These things usually look like technical attachments.
But if something truly goes wrong, they may be the only way out.
Vault Provider is online.
It can help the user complete Claim, Assert, and Payout.
Provider doesn’t respond.
The user theoretically can still run the command-line tool and follow the pre-set transaction path to retrieve $BTC back to the original address.
That sounds very trustless.
But immediately, I thought of a more realistic scenario.
The Provider goes offline.
The user’s old computer also breaks.
The WOTS files exist only on the original device.
There’s no offline backup of the recovery materials.
At this point, the protocol doesn’t hold the assets.
And the script doesn’t prevent exiting.
Yet the user may still stand at the exit—unable to find the key to the door.
So “no operator approval required” is only step 1.
The next step is to make ordinary users truly able to recover independently.
The data I want to see is also simple.
How many users have backed up the materials.
What is the success rate of Self-Claim.
How long does a full recovery take.
Where does failure mainly get stuck.
The infrastructure narrative behind $BABY can be huge.
But whether TBV is mature can’t be judged only by how many $BTC successfully made it into storage.
The real stress test is: when all assisting roles are offline, can the user still take the assets completely using only the files they saved themselves.
#baby
I stopped obsessing over what gets written into the deposit page.
Instead, I focused on what happens after the Provider disappears.
The answer is hidden in the WOTS keypair and the claimer artifacts.
When the Vault is created.
The user receives a one-time signing key.
As well as a complete set of pre-signed transactions and challenge data.
These things usually look like technical attachments.
But if something truly goes wrong, they may be the only way out.
Vault Provider is online.
It can help the user complete Claim, Assert, and Payout.
Provider doesn’t respond.
The user theoretically can still run the command-line tool and follow the pre-set transaction path to retrieve $BTC back to the original address.
That sounds very trustless.
But immediately, I thought of a more realistic scenario.
The Provider goes offline.
The user’s old computer also breaks.
The WOTS files exist only on the original device.
There’s no offline backup of the recovery materials.
At this point, the protocol doesn’t hold the assets.
And the script doesn’t prevent exiting.
Yet the user may still stand at the exit—unable to find the key to the door.
So “no operator approval required” is only step 1.
The next step is to make ordinary users truly able to recover independently.
The data I want to see is also simple.
How many users have backed up the materials.
What is the success rate of Self-Claim.
How long does a full recovery take.
Where does failure mainly get stuck.
The infrastructure narrative behind $BABY can be huge.
But whether TBV is mature can’t be judged only by how many $BTC successfully made it into storage.
The real stress test is: when all assisting roles are offline, can the user still take the assets completely using only the files they saved themselves.
#baby