
Since blockchain networks use cryptography to grant each user complete autonomy over their digital assets on an individual basis, a cryptographically relevant quantum computer (CRQC) would effectively make these systems impractical, as anyone with such a CRQC would be able to spend from any address. Of course, these systems and the cryptography used in the traditional financial sector could theoretically be upgraded to be quantum-resistant as well.
In terms of specific activities, the new advisory board, officially known as the Coinbase Independent Advisory Board on Quantum Computing and Blockchain, will publish papers assessing the threat level, issue recommendations to institutions and developers, and provide feedback as new breakthroughs in the quantum computing field emerge. Board members include Scott Aronson, director of the Center for Quantum Information at the University of Texas at Austin, and Dan Boneh, co-director of the Stanford Center for Blockchain Research.
Last year, there were new developments in quantum computing Google, with its Willow chipThis reignited enthusiasm for the possibility of real progress in this emerging technology. Various technical organizations and institutions, such as the National Institute of Standards and Technology (NIST) and IBM, have created frameworks mid 2030s As a time when fears over CRQC will become more practical and real. In fact, many tech giants, e.g. Google And Amazonhave already implemented changes to prepare for what is fast becoming known as Q-Day.
One reason people in the crypto sector are particularly interested in being proactive when it comes to quantum preparedness is that everything will break if CRQC shows up without being adequately prepared – it’s that decentralized systems are more difficult to upgrade than centralized tech companies, which have lead decision makers with the ability to make final decisions on changes. Due to this long timeline associated with crypto network upgrades, it is advisable to start working on this issue before it becomes even closer to a clear, imminent threat.
Quantum resilience is a clear priority for Ethereum (and Solana, and, and). Bitcoin developers still pretending that “no technical person” is concerned about quantum? https://t.co/8XmcuY2u9w pic.twitter.com/uh6hrLTTr2
– Nick Carter (@nic_carter) 19 January 2026
Of course, this is also true Crypto has become increasingly indistinguishable from traditional, centralized fintech. Blockchain networks are being built now Centrally operated by traditional fintech firms like Stripe and stablecoin issuers like CircleBecause over time it has become clear that the mainstream user base is more interested in dollar-compliant tokens than more volatile, crypto-native assets like Bitcoin and Ether. Therefore, from this perspective, the majority of the crypto market will be able to upgrade to deal with the quantum threat in a timely manner.
On the other hand, Bitcoin itself still maintains a high level of decentralization in its development processWhich has made it extremely difficult to implement changes at the protocol level. The last improvement to change the base protocol rules was Taproot, which was activated in 2021. The argument that Bitcoin will be slower to adopt changes than other networks has merit, as there can be heated disputes over specifics such as whether old, lost coins should be frozen.
Of course, there are many quantum computing startups who are hoping that older coins won’t be frozen, because they want a chance to break into it. The keys hold a Bitcoin treasure worth almost half a trillion dollars (depending on the day).
Bitcoin developers also view hastily added upgrades for quantum computing as a potential security vulnerability and generally reject fear-based protocol development outside of extreme circumstances. Right now, some Bitcoin developers are working on this issue, Bitcoin reform proposal draft also included (BIP), and According to longtime Cypherpunk and Blockstream CEO Adam BackThe correct approach is not fear but readiness for the worst possible outcome.
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