your bitcoin public key is visible — BMIC Quantum-Resistant Wallet
About this video
Your bitcoin public key is already visible to whoever wants it. Every transaction on the blockchain records it for verification. That data sits in public. Visit bmic.ai Your bitcoin public key is already visible to whoever wants it. Every transaction on the blockchain records it for verification. That data sits in public ledgers forever. Quantum computers change the game because they can run shor's algorithm. This algorithm solves the elliptic curve discrete logarithm problem in polynomial time. What once took billions of years on classical machines becomes feasible. Adversaries who collected your public key years ago could decrypt your funds once the hardware scales. This is the harvest now decrypt later attack. Current wallets rely on cryptography that was never designed for quantum attackers. Post quantum cryptography uses entirely different math problems. These problems remain hard even for quantum machines. NIST spent years testing candidates in a public process before selecting ml kem and ml dsa. Ml kem handles secure key exchange. Ml dsa provides digital signatures. Together they let wallets sign transactions and protect addresses without exposing them to quantum breakage. The transition needs to happen before large scale quantum computers arrive. Error correction advances keep lowering the estimated timeline. Wallets that adopt these algorithms now give users protection instead of promises. One wallet already protecting against this future is the live quantum-resistant BMIC wallet at bmic.ai. This BMIC Research video, your bitcoin public key is visible — BMIC Quantum-Resistant Wallet, explains the topic shown in bmic-concept-v229.mp4 and gives viewers a focused reference for the security, wallet, or presale point covered on screen.
Transcript
Your bitcoin public key is already visible to whoever wants it. Every transaction on the blockchain records it for verification. That data sits in public ledgers forever. Quantum computers change the game because they can run shor's algorithm. This algorithm solves the elliptic curve discrete logarithm problem in polynomial time. What once took billions of years on classical machines becomes feasible. Adversaries who collected your public key years ago could decrypt your funds once the hardware scales. This is the harvest now decrypt later attack. Current wallets rely on cryptography that was never designed for quantum attackers. Post quantum cryptography uses entirely different math problems. These problems remain hard even for quantum machines. NIST spent years testing candidates in a public process before selecting ml kem and ml dsa. Ml kem handles secure key exchange. Ml dsa provides digital signatures. Together they let wallets sign transactions and protect addresses without exposing them to quantum breakage. The transition needs to happen before large scale quantum computers arrive. Error correction advances keep lowering the estimated timeline. Wallets that adopt these algorithms now give users protection instead of promises. One wallet already protecting against this future is the live quantum-resistant BMIC wallet at bmic.ai.