Post-quantum cryptography, quantum key distribution, edge AI — without the foreign dependency, without the supply-chain exposure.
Post-quantum cryptography (PQC) migration, quantum key distribution (QKD), edge AI, sovereign compute frontier, and emerging-compute R&D. Dewelopers's frontier-compute stack is the largest sovereign quantum-and-edge platform in production — 12 national PQC migration programs, sovereign quantum readiness from day one, 5,000+ edge nodes deployed. The frontier-compute layer that the institution runs on, the institution owns.
National PQC programs
Production-deployed
Edge nodes
Deployed
Pilot deployments
Cryptographic sovereignty
- Post-quantum cryptography
- Quantum key distribution
- Edge AI sovereign
- Frontier R&D
- On-shore only
- Senior architect staffed
What This Is
Clear definition of the capability, service, or platform.
Quantum, edge, and emerging compute are the integrated technology layer that prepares a sovereign institution for the next decade of compute. The category encompasses post-quantum cryptography (PQC) migration, quantum key distribution (QKD), quantum-safe network architecture, edge AI, edge orchestration, sovereign compute frontier, neuromorphic computing, and the R&D layer that lets institutions stay at the leading edge of compute technology. These are not commercial PQC consulting engagements — they are sovereign frontier-compute platforms deployed on customer infrastructure, with full ownership and control. **Frontier-compute operates under constraints that commercial alternatives cannot meet.** Cryptographic sovereignty — every PQC migration is customer-controlled, customer-operated, on-shore. Quantum sovereignty — every QKD link is customer-owned, customer-operated, with full sovereignty over the quantum channel. Edge sovereignty — every edge node is customer-controlled, customer-operated, source-available. Dewelopers's frontier-compute stack is purpose-built for these constraints — 12 national PQC migration programs, 5,000+ edge nodes, sovereign quantum readiness from day one. **The strategic question for institutions is not whether to migrate to PQC — it is how.** Harvest-now-decrypt-later (HNDL) attacks mean that adversaries are capturing encrypted traffic today for decryption when cryptographically-relevant quantum computers (CRQCs) become available. The 2024 NIST PQC standards (FIPS 203, 204, 205) finalized the algorithms for post-quantum migration. The 2024-2025 surge in national PQC mandates has made post-quantum migration a regulatory and strategic imperative. Dewelopers's sovereign PQC migration stack is the path forward — customer-controlled, customer-operated, on-shore, with full sovereignty. We do not deliver commercial PQC consulting with a sovereignty skin. We deliver the sovereign frontier-compute layer that prepares a national institution for the post-quantum era — and we hand over the operations to the customer's own people when the engagement concludes.
What This Is Not
- —A PQC consulting engagement — this is operational technology, sovereign deployment, full ownership transfer.
- —A foreign-vendor PQC migration (IDEMIA, Thales, IBM Quantum) — this is fully sovereign, customer-owned, source-available.
- —A quantum computing cloud (IBM Quantum, AWS Braket, Azure Quantum) — this is sovereign frontier-compute, deployed on customer infrastructure, with full sovereignty.
- —A pilot project or a single-workload deployment — this is the integrated frontier-compute layer for institution-scale sovereign operation.
- —An imported foreign product — every component is owned, source-available, and operated by the customer.
Strategic Significance
Why this matters at the strategic level.
National frontier-compute operates under a strategic pressure that no commercial vendor can meet. The 2019-2024 surge in quantum computing capability has made the harvest-now-decrypt-later (HNDL) threat a present-day risk for any institution with data that needs to remain confidential for 10+ years. The 2024 NIST PQC standards (FIPS 203, 204, 205) finalized the algorithms for post-quantum migration. The 2024 US Quantum Cybersecurity Preparedness Act mandates federal agencies to migrate to PQC. The 2024-2025 EU PQC mandate requires member states to migrate critical infrastructure. The 2025 Indo-Pacific PQC initiatives are accelerating procurement of sovereign PQC migration. **Frontier-compute is foundational national infrastructure.** If a state's cryptography is compromised by a future quantum computer, every system that depends on cryptography is compromised — defence communications, financial transactions, healthcare records, citizen data, classified intelligence. The HNDL threat means that adversaries are capturing encrypted traffic today for decryption tomorrow. Dewelopers's sovereign frontier-compute stack is engineered for the post-quantum threat model: PQC migration, QKD pilots, edge AI sovereignty, and full ownership transfer. **The strategic landscape is shifting.** The 2024 NIST PQC standards have made PQC migration a technical imperative. The 2024-2025 national PQC mandates have made PQC migration a regulatory requirement. The 2025-2026 quantum-safe network initiatives are accelerating procurement of sovereign QKD. The strategic question for every national institution is whether the next decade of cryptography is quantum-safe or vulnerable to quantum attack. **The cost of waiting is harvest-now-decrypt-later exposure.** Every year on classical cryptography is a year of compounding HNDL exposure, accumulating cryptographic debt, and rising risk of future quantum compromise. The cost is not zero — it is the gradual accumulation of data that will be decryptable when CRQCs become available. Dewelopers's sovereign PQC migration can be deployed in 6-9 months for a pilot workload, 18-36 months for a national rollout. The time horizon is shorter than most procurement frameworks assume.
Core Features
The capabilities that make this work.
12 National PQC Migration Programs
Post-quantum cryptography migration in production across 12 national governments. CRYSTALS-Kyber-768, CRYSTALS-Dilithium-3, AES-256-GCM, SHA-3-512. NIST-selected algorithms for post-quantum standardization. 18 country deployments with full cryptographic inventory.
→ PQC migration is operational, not aspirational. The customer has full control of the PQC algorithm inventory, the migration roadmap, the PQC-protected systems, and the cryptographic agility layer. Quantum-safe from day one, not as a future migration.
12 PQC programs · CRYSTALS-Kyber/Dilithium · 18 countries
Quantum Key Distribution (QKD) Pilots
Quantum key distribution (QKD) pilots in production across 3 national governments. Sovereign QKD links, sovereign QKD networks, customer-controlled QKD nodes. Information-theoretic security for the most demanding cryptographic sovereignty requirements.
→ QKD provides information-theoretic security — the cryptographic keys are protected by the laws of quantum physics, not by computational complexity. The customer gets the most demanding cryptographic sovereignty available today.
3 QKD pilots · Information-theoretic security · Sovereign
5,000+ Edge Nodes in Production
Edge AI for tactical operations, industrial IoT, smart cities, autonomous systems. Customer-controlled edge nodes, customer-controlled orchestration. 5,000+ edge nodes in production across 14 country deployments.
→ Edge AI brings sovereign AI capability to the tactical edge, the industrial edge, and the autonomous-systems edge. Inference happens on the edge node, not in a foreign cloud. The customer retains full control of the inference data, the model, and the edge orchestration.
5,000+ edge nodes · 14 countries · Sovereign
Quantum-Safe Network Architecture
Quantum-safe network architecture — PQC-protected TLS, PQC-protected VPN, PQC-protected API gateway, PQC-protected DNS. Customer-controlled, customer-operated, source-available. 12 country deployments in production.
→ Network communications are protected against future quantum attack. TLS handshakes use PQC key encapsulation. VPN tunnels use PQC key exchange. API requests use PQC signatures. DNS queries use PQC-authenticated records.
PQC TLS/VPN/API/DNS · 12 countries · Sovereign
Cryptographic Agility & Algorithm Inventory
Cryptographic agility — algorithm inventory, algorithm versioning, algorithm migration, algorithm retirement. Customer-controlled, customer-operated, on-shore. 18 country deployments with full cryptographic inventory.
→ Cryptographic agility lets the customer migrate from one algorithm to another without re-architecting the entire system. New algorithms are deployed via configuration, not code. Algorithm retirement is operational, not disruptive.
Algorithm inventory · Agility · 18 countries
HNDL Exposure Mitigation
Harvest-now-decrypt-later (HNDL) exposure mitigation — sensitive data identification, quantum-safe re-encryption, PQC re-issuance. Customer-controlled, customer-operated. 12 national HNDL mitigation programs in production.
→ HNDL exposure is the present-day risk that adversaries are capturing encrypted traffic today for decryption when CRQCs become available. The customer identifies HNDL-vulnerable data, re-encrypts with PQC, and re-issues keys with PQC. The HNDL window closes.
HNDL mitigation · PQC re-encryption · 12 countries
Sovereign Frontier R&D
Sovereign frontier R&D — joint research with national research institutions, frontier-compute pilots, custom accelerator development. 6 national R&D partnerships in production. Neuromorphic, photonic, custom AI accelerators.
→ The customer stays at the leading edge of compute technology without depending on foreign frontier-compute vendors. Sovereign R&D partnerships with national research institutions ensure the customer benefits from local innovation.
6 R&D partnerships · Neuromorphic/photonic · National research
Technical Specs
Production-grade technical specifications.
Operational Outcomes
Measured outcomes from real deployments.
Measured Results
Operational outcomes from deployments.
What Sets This Apart
Why this is different from alternatives.
12 National PQC Migration Programs
PQC migration in production across 12 national governments. CRYSTALS-Kyber-768, CRYSTALS-Dilithium-3, AES-256-GCM, SHA-3-512. NIST-selected algorithms for post-quantum standardization. 18 country deployments with full cryptographic inventory.
12 PQC programs · CRYSTALS-Kyber/Dilithium · 18 countries
QKD Pilot Deployments
Quantum key distribution (QKD) pilots in production across 3 national governments. Sovereign QKD links, sovereign QKD networks, customer-controlled QKD nodes. Information-theoretic security for the most demanding cryptographic sovereignty requirements.
3 QKD pilots · Information-theoretic security · Sovereign
5,000+ Edge Nodes in Production
Edge AI for tactical operations, industrial IoT, smart cities, autonomous systems. 5,000+ edge nodes in production across 14 country deployments. Customer-controlled edge nodes, customer-controlled orchestration.
5,000+ edge nodes · 14 countries · Sovereign
Cryptographic Agility & Algorithm Inventory
Cryptographic agility — algorithm inventory, algorithm versioning, algorithm migration, algorithm retirement. Customer-controlled, customer-operated, on-shore. 18 country deployments with full cryptographic inventory.
Algorithm inventory · Agility · 18 countries
Quantum-Safe Network Architecture
Quantum-safe network architecture — PQC-protected TLS, PQC-protected VPN, PQC-protected API gateway, PQC-protected DNS. 12 country deployments in production. Customer-controlled, customer-operated, source-available.
PQC TLS/VPN/API/DNS · 12 countries · Sovereign
HNDL Exposure Mitigation
Harvest-now-decrypt-later (HNDL) exposure mitigation — sensitive data identification, quantum-safe re-encryption, PQC re-issuance. 12 national HNDL mitigation programs in production.
HNDL mitigation · PQC re-encryption · 12 countries
Senior Cryptography Architects
Every PQC migration engagement is staffed by a senior cryptography architect — a former senior cryptography leader with 15+ years of national-scale cryptography experience. The architect is supported by a multidisciplinary team of PQC specialists, QKD engineers, and edge AI experts.
Senior cryptography architect · 15+ years · Multi-disciplinary team
Standards & Certifications
Active certifications and continuous compliance.
NIST PQC
FIPS 203/204/205
FIPS 140-3 L3
HSM certification
NSA CNSA 2.0
Commercial National Security Algorithm
ISO 27001
Information Security
Common Criteria EAL5+
Evaluation Assurance
Engagement Models
Pricing and engagement options.
Pilot Workload
One system. One agency. Sovereign PQC migration. 6-9 months. The pilot is the proving ground: it delivers operational capability, validates the architecture, and demonstrates PQC migration before national-scale rollout.
National Deployment
All systems. All agencies. Full sovereign PQC rollout. 18-36 months. The national deployment is the integrated post-quantum layer that the national institution runs on — sovereign, cryptographic-agility-grade, with full operational handover.
Strategic Partnership
Multi-decade partnership. Continuous modernization. Frontier R&D. 36-60 months initial, with multi-year follow-on. The strategic partnership is the institutional technology backbone of sovereign frontier-compute, modernized continuously over decades.
What Clients Ask
Common questions from prospective clients.
How is this different from a commercial PQC consulting engagement?
Commercial PQC consulting vendors deliver advisory services — they assess the customer's cryptographic inventory, recommend PQC algorithms, and provide migration guidance. Dewelopers delivers operational technology — PQC migration, cryptographic agility, PQC-protected systems, QKD pilots, edge AI sovereignty. The depth difference is the difference between a PQC advisory and a sovereign PQC migration that the customer fully owns and operates.
What is the harvest-now-decrypt-later (HNDL) threat?
HNDL is a present-day threat where adversaries capture encrypted traffic today for decryption when cryptographically-relevant quantum computers (CRQCs) become available. Any data that needs to remain confidential for 10+ years is HNDL-vulnerable today. The 2024 NIST PQC standards (FIPS 203, 204, 205) finalized the algorithms for post-quantum migration. The 2024 US Quantum Cybersecurity Preparedness Act mandates federal agencies to migrate to PQC.
What PQC algorithms are supported?
NIST-selected PQC algorithms — CRYSTALS-Kyber-768 for key encapsulation, CRYSTALS-Dilithium-3 for digital signatures, AES-256-GCM for symmetric encryption, SHA-3-512 for hashing. These are the algorithms selected by NIST for post-quantum standardization in 2024. The Dewelopers PQC stack supports all NIST-selected algorithms, with cryptographic agility for future algorithm migration.
What is QKD and why is it different from PQC?
PQC protects against future quantum attack by using new mathematical algorithms (CRYSTALS-Kyber, CRYSTALS-Dilithium). QKD protects against future quantum attack by using the laws of quantum physics — the cryptographic keys are protected by quantum mechanics, not by computational complexity. QKD provides information-theoretic security. PQC provides computational security against quantum attack. Both are needed for the most demanding cryptographic sovereignty requirements.
How long does a national PQC migration take?
A pilot workload (one system, one agency) takes 6-9 months. A national rollout (all systems, all agencies) takes 18-36 months. A full strategic partnership (multi-decade, continuous modernization) takes 36-60 months initial with multi-year follow-on. These are real numbers from real deployments across 12 national PQC programs — not vendor marketing projections.
Can the PQC migration integrate with existing systems?
Yes. The PQC migration is designed for interoperability with existing systems — TLS, VPN, API gateways, DNS, identity providers, payment systems, document signing, code signing. Integration is over standard protocols with cryptographic adapters where required. The customer's existing systems are not displaced — they are PQC-migrated.
What about the cryptographic agility layer?
Cryptographic agility lets the customer migrate from one algorithm to another without re-architecting the entire system. New algorithms are deployed via configuration, not code. Algorithm retirement is operational, not disruptive. 18 country deployments with full cryptographic inventory. The customer can migrate from CRYSTALS-Kyber-768 to a future algorithm with configuration change, not system rewrite.
Frequently Asked
Common questions about this content.
What is the minimum engagement size for PQC migration?
The minimum engagement is a pilot workload at $2M-$5M over 6-9 months. The pilot deploys PQC migration on one system for one agency in sovereign mode. The pilot is the proving ground: it delivers operational capability, validates the architecture, and demonstrates PQC migration before national-scale rollout.
How long does a national PQC migration take?
A pilot workload takes 6-9 months. A national rollout (all systems, all agencies) takes 18-36 months. A full strategic partnership (multi-decade, continuous modernization) takes 36-60 months initial with multi-year follow-on. These are real numbers from real deployments across 12 national PQC programs — not vendor marketing projections.
What is the harvest-now-decrypt-later (HNDL) threat?
HNDL is a present-day threat where adversaries capture encrypted traffic today for decryption when cryptographically-relevant quantum computers (CRQCs) become available. Any data that needs to remain confidential for 10+ years is HNDL-vulnerable today. The 2024 NIST PQC standards finalized the algorithms. The 2024 US Quantum Cybersecurity Preparedness Act mandates federal agencies to migrate to PQC.
What PQC algorithms are supported?
NIST-selected PQC algorithms — CRYSTALS-Kyber-768 for key encapsulation, CRYSTALS-Dilithium-3 for digital signatures, AES-256-GCM for symmetric encryption, SHA-3-512 for hashing. These are the algorithms selected by NIST for post-quantum standardization in 2024.
What is QKD and why is it different from PQC?
PQC protects against future quantum attack by using new mathematical algorithms. QKD protects against future quantum attack by using the laws of quantum physics. QKD provides information-theoretic security. PQC provides computational security against quantum attack. Both are needed for the most demanding cryptographic sovereignty requirements.
Can the PQC migration integrate with existing systems?
Yes. The PQC migration is designed for interoperability with existing systems — TLS, VPN, API gateways, DNS, identity providers, payment systems, document signing, code signing. Integration is over standard protocols with cryptographic adapters where required.
What is the warranty and support model?
Dewelopers provides a 5-year operational warranty on the deployed stack, with full source-available code, full sovereign ownership transfer to the customer, and 24/7/365 support via the customer's preferred channel (on-site, sovereign remote, or hybrid). Annual architecture reviews are included. Major version upgrades are supported for 10 years from deployment.
Post-quantum cryptography without the foreign dependency.
Every national institution is on a 10-20 year PQC migration journey. The strategic question is not whether to migrate to PQC — it is whether to migrate on sovereign infrastructure or on foreign-vendor consulting. Dewelopers's sovereign PQC stack is the only 12-national-program, NIST-selected-algorithms, cryptographic-agility-grade, FIPS 140-3 Level 3 integrated post-quantum layer for institution-scale sovereign operation. The pilot engagement is $2M-$5M over 6-9 months. The sovereign briefing is confidential. The engagement brief is 18 pages and arrives within 72 hours under appropriate security controls.