💥Uzmini Emoji vārdu un laimē daļu no kopējā balvas fonda 100 USDC! 🎉💰
🔍 Jautājums 1. dienā Lūdzu, paskatieties uz banera attēlu augšpusē. Ko šie Emoji pārstāv kriptovalūtu pasaulē? 💡 Ieteikums: "Es esmu kaut kas, ko tev nevajadzētu pilnībā dalīt ar citiem". 📝 Lai iesniegtu savu atbildi, skatieties oficiālo @Binance Khmer 🗓 Datums: 17-23 Decembris 2025 ⏰ Laiks: 1:00 PM – 8:00 PM (UTC+7)
“Moments to think about where we should invest… don’t forget the older cryptocurrencies such as BCH, LTC, NANO, DASH, because at the moment I believe they are undervalued but have potential to appreciate in the future, just like what happened with the huge price surge of ZEC, which a few months ago was worth around $20–30.” #BCH #LTC #DASH #NANO $BTC
pershendetje te gjithve... sipas kandeleve dhe momentit besoj qe situata do vazhdoj te jete ne renie per kriptovalutat ne pergjithesi mendoj qe bitcoini edhe kete jave do vazhdoj te zbres me te pakten 5-7 % parashikohet qe te pakten per kete jave te varioj ne cmimet ndermjet 90k deri ne me te ulten ne 83k ..ju uroj suksese dhe kujdes ne tregti..
Bitcoin faces meaningful cryptographic and operational risks from large-scale quantum computers. While full-scale quantum attacks remain speculative in timing, their potential to break ECDSA/Schnorr signatures and to accelerate hashing tasks forces the Bitcoin ecosystem to plan migrations to quantum-resistant primitives and to adopt wallet/operational practices that minimize exposure. Expanded formulation (polished paragraph) Bitcoin’s security model depends critically on classical public-key cryptography (ECDSA / Schnorr) and the computational hardness of SHA-256 for proof-of-work. A sufficiently powerful quantum computer running Shor’s algorithm could derive a user’s private key from any revealed public key, enabling theft of funds from addresses that have previously published signatures. Grover-type quantum speedups also reduce the effective cost of brute-forcing hash preimages, which could affect mining dynamics and certain cryptographic proofs — although Grover offers only a quadratic, not exponential, advantage. The most immediate practical risk is to spent addresses: any address whose public key has appeared on-chain becomes vulnerable if a quantum adversary can act before funds are moved. Mitigations include migrating to post-quantum signature schemes (lattice- or hash-based), minimizing address reuse, delaying public-key exposure where possible, using multi-signature setups that mix classical and post-quantum keys, and coordinating protocol upgrades (soft or hard forks) to introduce quantum-resistant primitives. Planning and tooling are required now because wide deployment and user migration will take years, even if large quantum machines remain uncertain in arrival time.