Quantum-Resistant Wallet vs a Standard Wallet
It's a fair question to ask plainly: if a quantum-resistant wallet works exactly like any other wallet, what is actually different about it?
The honest answer is: nothing in daily use. You generate a key pair the same way, sign transactions the same way, and check your balance against the same public blockchain. There is no extra step, no new interface, and no added complexity to get the quantum-resistant part.
The difference sits one layer underneath, in the mathematics protecting the private key. A standard wallet secures that key with elliptic-curve cryptography alone -- strong against every computer in practical use today, but with a known theoretical weakness against a sufficiently capable quantum computer, via a method called Shor's algorithm. A quantum-resistant wallet adds a second, NIST-standardized post-quantum algorithm specifically chosen because it has no known quantum shortcut, based on current cryptographic research.
BMIC is built this way from the start rather than as a later upgrade: NIST-standardized CRYSTALS-Kyber (ML-KEM) protecting the key, independently audited, every allocation verifiable on-chain -- with exactly the same day-to-day experience as any other wallet.
FAQ
Do I have to learn anything new to use a quantum-resistant wallet?
No. Generating keys, sending, receiving, and checking balances all work the same as any standard wallet.
Is a quantum-resistant wallet slower?
No. Key generation and signing with NIST-standardized ML-KEM remain fast on ordinary consumer devices.
Can I tell the difference by looking at the app?
No -- the difference is entirely in the cryptographic algorithm protecting the key underneath, not in any visible feature.
Is a standard wallet unsafe right now?
No known quantum computer today can break current wallet cryptography. The separate concern is data exposed today being decrypted retroactively later -- see the harvest-now-decrypt-later page.