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Michael Saylor: Quantum Computing Won’t Break Bitcoin This Decade — Upgrade Would Come First - Yahoo Finance

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⚡ Quantum Brief
Michael Saylor asserts quantum computing won’t threaten Bitcoin before 2036, arguing the network would preemptively upgrade its cryptography before any credible attack materializes. The primary risk isn’t quantum miners outpacing proof-of-work but Shor’s algorithm cracking public-key signatures, exposing funds tied to reused or visible addresses during transactions. Bitcoin’s BIP-360 proposal introduces Pay-to-Merkle-Root (P2MR) as a potential quantum-hardening foundation, though it remains unactivated and may never be adopted without broad consensus. Saylor’s confidence hinges on Bitcoin’s adaptability as software, but coordination challenges—wallet updates, exchange integration, and user migration—could complicate timely upgrades. Ethereum’s Vitalik Buterin advocates faster post-quantum planning, highlighting a split in crypto’s approach: proactive preparation versus waiting for clearer quantum timelines.
Michael Saylor: Quantum Computing Won’t Break Bitcoin This Decade — Upgrade Would Come First - Yahoo Finance

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Michael Saylor: Quantum Computing Won’t Break Bitcoin This Decade — Upgrade Would Come First Alex Shilina Sun, March 1, 2026 at 6:02 AM EST 4 min read 1 BTC-USD +3.61% MSTR -2.92% Key Takeaways Saylor says a credible quantum threat to Bitcoin is likely more than a decade away. The practical concern is key theft via signature cryptography, not quantum miners “beating” proof-of-work. The Bitcoin BIPs repository includes BIP 360, a proposal positioned as groundwork that could support future quantum-hardening paths, but it is not an activated network change. Strategy (formerly MicroStrategy) executive chairman Michael Saylor is pushing back on fresh debate over quantum computing risks. He is arguing the threat won’t materialize this decade — and that Bitcoin would upgrade first. Saylor has made the point before. In a December post, he framed quantum progress as something Bitcoin would adapt to: stronger cryptography, updated standards, and users moving funds to new address types. His comments come as developers formalize early discussions on quantum readiness in Bitcoin’s public proposal process, including the publication of BIP-360 in the Bitcoin Improvement Proposals (BIPs) repository.

What Saylor Is Claiming On Natalie Brunell’s Coin Stories podcast, Saylor argued that a quantum computer capable of threatening modern cryptography is not an “in this decade” event. He added that even if the risk becomes real, upgrades across global digital infrastructure would follow, including Bitcoin. In other words, Bitcoin is software, and software can change — before an attacker can reliably exploit a breakthrough. Bitcoin’s Real Issue: Signatures, Not Mining Quantum panic is often packaged as “quantum computers will out-mine Bitcoin.” That’s not the main risk. The sharper concern targets public-key cryptography — the digital signatures that prove ownership of coins. If large-scale, fault-tolerant quantum machines reach sufficient capability, Shor’s algorithm could undermine widely used public-key systems. That is why security institutions are preparing for post-quantum cryptography (PQC) and emphasizing “crypto agility,” or the ability to swap cryptographic primitives without rebuilding entire systems. The Nuance: Exposed vs Unexposed Bitcoin Public Keys Not every Bitcoin output is equally exposed to a future quantum adversary. Many outputs commit to a hash of a public key and only reveal the public key when the owner spends. That means the attack surface concentrates where public keys are already visible on-chain, such as legacy patterns or address reuse, and during the act of spending, when key data becomes public in the transaction window. This is why mitigation discussions often focus on new output types and spending policies, rather than simply replacing one signature algorithm with another. Story Continues BIP 360: A Proposal, Not ActivationBitcoin’s development process is public and proposal-driven, and the BIPs repository includes BIP-360.The Bitcoin proposal introduces Pay-to-Merkle-Root (P2MR) as a new output type via soft fork.The proposal frames P2MR as a way to avoid a Taproot spending path that can reveal a public key, and as groundwork that could make future PQC integration cleaner.But publication is not activation. A BIP can be discussed, revised, and debated for a long time before it becomes a live network change, or it may never be adopted at all.Why “Upgrade First” Is a Coordination Bet for BitcoinSaylor’s thesis ultimately rests on coordination.Even if Bitcoin adopts a post-quantum signature scheme, migration would depend on wallet support, exchange infrastructure, custody systems, user behavior, and the large-scale movement of coins to quantum-resistant outputs.That is technically feasible. It is also operationally heavy.This is why some researchers and security engineers argue that Bitcoin should prepare earlier.The warning comes even if the threat is distant, because the hardest part is getting millions of users and institutions to move safely in time.The Wider Crypto SplitSaylor’s confidence isn’t universal. Vitalik Buterin has repeatedly argued that crypto ecosystems should accelerate post-quantum planning rather than wait for a clear inflection point.The Ethereum Foundation has also listed “quantum readiness” among its 2026 priorities.The divergence reflects less a disagreement about physics than about timing — whether the industry can safely coordinate upgrades before the threat becomes practical.Top Trending Crypto Articles Check Out Our Recommended Exchanges Here How To Buy Crypto with a Credit Card Now See Our Picks for the Best Crypto Gambling Sites The post Michael Saylor: Quantum Computing Won’t Break Bitcoin This Decade — Upgrade Would Come First appeared first on ccn.com.

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