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The July 2024 OMB report makes clear that post-quantum cryptography migration is a long-lead operational program, not a future technology upgrade. Even without a cryptanalytically relevant quantum computer today, Federal agencies must begin inventorying cryptography, prioritizing long-lived data, identifying non-migratable systems, and aligning to NIST standards now to manage record-now-decrypt-later risk and avoid disruptive, costly replacements later.

Hybrid quantum chemistry combines classical simulation, AI, and trapped-ion quantum processors to target the hardest chemical problems. By partitioning workflows so strongly correlated subproblems run on quantum hardware and the surrounding environment runs classically, organizations can move from isolated quantum experiments to scalable, decision-grade simulations for chemistry and materials science.

2026 marks a pivotal shift from theoretical planning to operational execution. As NIST standards integrate into vendor products, the gap between the ready and the deferred will widen. This year demands cross-functional ownership of the quantum posture...ensuring security, innovation, and executive leadership operate from a single, unified roadmap.

The EU’s post-quantum cryptography roadmap treats quantum risk as an immediate migration challenge, requiring organizations to inventory cryptography, adopt crypto-agility, and deploy hybrid classical-plus-PQC schemes in alignment with emerging EU, NIST, and ETSI standards.

Federal moves to accelerate quantum adoption signal that quantum readiness is no longer a future concern but a present operational requirement. As post-quantum cryptography expectations from NIST, CISA, and international regulators take shape, organizations face audits, evidence requests, and deadlines they are not prepared for. Most still lack visibility into where quantum-vulnerable cryptography exists. Readiness, not announcements, is now the critical first step.

Hybrid compute combines cloud, AI, and quantum systems into a single, coordinated architecture that routes each workload to the most effective execution environment. This approach delivers scalability, performance, and resilience that no single computing paradigm can achieve alone.

Quantum computing is a method of processing information using quantum bits, qubits, that can represent multiple states at once. This allows quantum systems to explore complex possibilities faster than classical computers for specific tasks like optimization or molecular modeling. Quantum computers do not replace classical computing; they complement it by accelerating the kinds of problems classical systems struggle with.

This week, we closed the QuantumPQC pilot. The response from our beta community exceeded every expectation we had when we released these capabilities on GitHub. We wanted to test a simple idea: quantum readiness, including post-quantum cryptography migration efforts, should not cost six figures or require specialized consultants. Organizations of all sizes deserve to know their cryptographic exposure before they can act on it. Here's what we learned and why it matters.

With post-quantum cryptography (PQC) deadlines approaching and “store-now, decrypt-later” attacks in play, organizations can’t afford to guess where RSA-2048, ECDSA, SHA-1, MD5, or legacy ciphers are still hiding in their codebases. At the same time, security and compliance teams are being asked to prove crypto posture against NIST SP 800-53 SC-13 and emerging PQC guidance from CISA, NIST, and Canadian CCCS/CSE.

As we enter an exciting technological era, quantum computing is set to transform various industries. This advanced technology promises to solve complex problems at speeds that traditional computers cannot match. To harness its potential, many organizations are exploring quantum computing through pilot projects. In this blog post, I will explain what a quantum computing pilot is, highlight notable enterprises conducting these initiatives, and discuss the implications for busin

For forward-thinking leaders, the message is clear. The quantum advantage is not a distant future but an emerging reality that early adopters are already beginning to harness. The art of decision-making continues to evolve, and the quantum chapter promises to be the most transformative yet.