Post Quantum Functions Secure New Protocols — BMIC Quantum-Resistant Wallet
About this video
How can post quantum one way functions remove old limits on secure computation? Researchers built an oblivious transfer protocol that depends only on these. Visit bmic.ai to learn more. How can post quantum one way functions remove old limits on secure computation? Researchers built an oblivious transfer protocol that depends only on these functions. Earlier versions needed assumptions like bounded quantum memory or restricted attacker models. The new construction works without those constraints. Oblivious transfer is a primitive where one party sends data without learning which piece was received. It forms the basis for private auctions, secure voting, and privacy preserving machine learning. Making it post quantum means the whole protocol resists both classical and quantum attacks. This advance widens device independent cryptography where hardware does not need to be trusted. For the crypto space it shows the post quantum ecosystem is growing beyond basic signatures and key exchange. NIST chose ML-KEM and ML-DSA after rigorous international review because they balance security and performance. These algorithms are live today in systems that protect keys even after quantum computers scale. Watching how primitives combine helps clarify the transition path. The research is not abstract. It directly supports wallets that keep your assets safe on chain. BMIC is a live wallet already running these exact NIST-approved algorithms at bmic.ai. This BMIC Research video, Post Quantum Functions Secure New Protocols — BMIC Quantum-Resistant Wallet, explains the topic shown in bmic-concept-v156.mp4 and gives viewers a focused reference for the security, wallet, or presale point covered on screen.
Transcript
How can post quantum one way functions remove old limits on secure computation? Researchers built an oblivious transfer protocol that depends only on these functions. Earlier versions needed assumptions like bounded quantum memory or restricted attacker models. The new construction works without those constraints. Oblivious transfer is a primitive where one party sends data without learning which piece was received. It forms the basis for private auctions, secure voting, and privacy preserving machine learning. Making it post quantum means the whole protocol resists both classical and quantum attacks. This advance widens device independent cryptography where hardware does not need to be trusted. For the crypto space it shows the post quantum ecosystem is growing beyond basic signatures and key exchange. NIST chose ML-KEM and ML-DSA after rigorous international review because they balance security and performance. These algorithms are live today in systems that protect keys even after quantum computers scale. Watching how primitives combine helps clarify the transition path. The research is not abstract. It directly supports wallets that keep your assets safe on chain. BMIC is a live wallet already running these exact NIST-approved algorithms at bmic.ai.