DYK? Did you know @ProjectFactor has factored about half of all 512-bit *RSA keys on the internet? So What? That means Factor has already proven its real-world capability to break weak encryption at a massive scale. In practical terms, it demonstrates that the network isn’t just theoretical math, it’s performing computational work with measurable, verifiable results. Factoring half of all known 512-bit RSA keys shows that Factor’s distributed compute power rivals some of the most advanced academic and governmental research clusters, validating its model for decentralized, real-world math-as-a-service. Why That Matters for the Quantum Age As #quantumcomputing advances, much of today’s encryption, including RSA, will become vulnerable. Traditional mining systems waste enormous energy solving meaningless hashes that quantum machines could trivialize overnight. Factor, by contrast, anchors its block rewards to real cryptographic work. Each solved key is both proof of work and proof of utility. This model evolves naturally with the coming era: instead of being rendered obsolete by quantum power, Factor’s Integer-Factorization-as-a-Service (IFaaS) harnesses it. So, as computing capacity scales, whether classical or quantum, Factor’s network scales with it, turning that raw power into measurable scarcity and genuine security work. This positions Factor as a bridge between classical cryptography and post-quantum cryptographic systems, transforming mining from a wasteful race into a globally useful compute marketplace that secures the next generation of cryptographic infrastructure. 🔗Link to website for further research and to participate.🔬▼

projectfactor.io *What is RSA? RSA, short for Ron Rivest, Adi Shamir, and Leonard Adleman, was invented in 1977 and became the foundation of modern digital security. It’s what keeps data private in emails, online banking, and secure web connections. Its strength comes from a simple but powerful idea: multiplying two huge prime numbers is easy, but factoring the result back into those primes is extremely hard. That “hard problem” is what protects your data. Over the decades, RSA has held up because classical computers can’t efficiently factor numbers big enough to break it - yet. But as computational power grows, especially with the rise of #quantumcomputing, that barrier is shrinking fast. That’s why new systems are needed. Quantum algorithms like Shor’s could one day make factoring large RSA keys trivial, effectively breaking the encryption that secures much of the internet. Projects like Factor are already working at the frontier of this shift, proving, at scale, that factoring can be distributed, verifiable, and useful. It’s a glimpse into how cryptographic work might evolve in the post-quantum era, where “mining” and “security” merge into one real, mathematical function. projectfactor.io

@ProjectFactor SOON

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@ProjectFactor $FACT 🔜