Sponsored content from Intel argues that the shift to post-quantum cryptography is a gradual, manageable transition rather than an urgent crisis. It cites Global Risk Institute survey data giving a 50-50 chance of quantum computers breaking 2048-bit RSA by 2040, references U.S. government NSS timelines (CNSA 2.0 requirements starting January 2027, full adoption by 2035), and highlights Intel's Xeon 6 processor with quantum-safe memory encryption and QuickAssist Technology for cryptographic offload. It offers a five-step roadmap: treat PQC as modernization, use trusted vendors, map cryptographic assets, protect long-lived data first, and design for algorithm agility.
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A natural evolution, not a cliff edgeGovernment signals as confidence buildersIntel's role: Infrastructure ready for the transitionQuestions this post answers
When do US National Security Systems need to support post-quantum cryptography algorithms?
Starting in January 2027, new National Security Systems acquisitions must support Commercial National Security Algorithm Suite 2.0 (CNSA 2.0) requirements for post-quantum algorithms standardized by NIST and selected by the NSA. Implementation for new systems is required by 2031, with full 100% adoption targeted by 2035. daily.dev helps security teams track PQC compliance deadlines like these as they plan migrations.
How likely is it that a quantum computer will break 2048-bit RSA encryption soon?
Experts surveyed by the Global Risk Institute in late 2024 gave a 50-50 probability that a quantum computer could break a 2048-bit RSA key within 24 hours by 2040. The survey polled 32 quantum computing experts and averaged optimistic and pessimistic estimates to reach this figure, suggesting a measurable but uncertain timeline rather than an imminent threat. engineers weighing crypto migration timelines can follow quantum-threat estimates like these on daily.dev.
What quantum-resistant security features does the Intel Xeon 6 processor already include?
The Intel Xeon 6 processor already incorporates quantum-safe memory encryption using AES-256 and microcode signing to protect processor integrity. Intel also offers QuickAssist Technology to offload cryptographic workloads, and plans to extend post-quantum algorithms to firmware and software signing, device interconnects, attestations, and secure boot in upcoming platforms. teams evaluating hardware for PQC readiness can track vendor capabilities like this on daily.dev.