The bits were the key
Until the mint existed on-chain, the measured bits were its private key. They went public right after launch.
Erwin is a Solana memecoin whose mint address came out of an IBM quantum computer. The rule went public before the job ran, and anyone can check the math with plain Python.
CA
Mint address revealed at launch.
From the job record
Fixed in public code before the quantum job ran
Every step was fixed in public code before the quantum job ran. Nothing on this page asks you to take our word for it.
Until the mint existed on-chain, the measured bits were its private key. They went public right after launch.
16 qubits on IBM Quantum hardware, not a simulator. The job runner refuses simulators.
The verifier's ed25519 code is copied from the standard. Diff it line by line.
verify.py runs on the Python standard library alone. Nothing to install, nothing to trust.
The SHA-256 of the results file is written in the token's create transaction, so the bits were fixed before anyone saw them.
A Hadamard gate on each of 16 qubits, measured 16 times on IBM Quantum hardware
The 16 bitstrings, in shot order, make 256 bits of quantum entropy
Hash the bits with a counter n from 0. The first n whose address ends in “erwin” wins
The seed becomes an ed25519 keypair. Its public key is the mint address
16 qubits, measured 16 times. Concatenated in shot order, first shot first.
Expected length of the counter search for the “erwin” ending. Anyone can rerun it.
verify.py needs Python 3.8 or newer and nothing else.
Commit, run, derive, launch, reveal. In that order, each one on the record.
Four public records tie the coin to the quantum job. Open each one and check it yourself.
The derivation rule, job runner and verifier, published on GitHub before any job ran.
A web.archive.org copy of the repository, timestamped before the IBM job.
The create transaction's memo records the job ID, the counter and the results hash.
The 16 measured bitstrings, published right after the create transaction confirmed.
Commit, run, derive, launch, reveal. In that order, each step on the public record.
Rule, job runner and verifier published before any job ran.
16 qubits, 16 shots on real IBM Quantum hardware.
Counter search for the first address ending in “erwin”.
Token created on Solana at that exact address.
Bits, counter, job ID and recording published for anyone to check.
Run it on your own machine
Python 3.8 or newer. verify.py prints MATCH, and the hash must equal the memo in the launch transaction.
Have an assistant walk through every step
Paste this into any assistant that can run code.
IBM's own job record, fetched now
What it checks
The job record, fetched from IBM's API by our server. The fetch time is below.
Asking IBM…
Fetched live by our server from IBM's API with a read-only key. The key stays private because IBM's account API would also expose the owner's email.
Straight answers about the quantum claim, from the bits to the launch.
Verify it yourselfA Solana memecoin whose mint address came out of an IBM quantum computer.
Erwin is named after Erwin Schrödinger. His cat is the most famous image in quantum physics: alive and dead at once, until someone looks. Our coin didn't exist either, until a quantum computer looked.
Until the mint existed on-chain, the measured bits were its private key. They were published right after the create transaction confirmed.
No. The bits came from the quantum job, and the ending came from a public counter search: n is the smallest counter, from 0, that makes the address end in “erwin”. Anyone can rerun the search.
The IBM job ID, the live record above and a one-take screen recording of the job tie the bits to real hardware. Doubt it? We'll re-run a fresh job live on an X Space.
Python 3.8 or newer and the published results file. verify.py uses only the standard library, and its ed25519 code is copied verbatim from RFC 8032.
No. It's a memecoin: no promise of value or return. The only thing it proves is where its address came from.