Coeval-Authenticated Encryption

for Quantum-Resilient Systems

Advanced Symmetric Encryption for Next-Generation Computing and AI-Scale Networks

Introducing Coeval-Authenticated Encryption (CAE)

Quantum-resilient encryption designed to secure high-performance systems against future quantum threats

Why Choose ATNA-CIPHER

  • Associative encryption for beyond-traditional applications
  • Ultra-high-speed design for AI, RDMA, and secure networks
  • HW/SW/FW co-designed with ASIC support
  • Aligned with NIST, CNSA, CSfC, ENISA, and ANSSI
  • Built for national security & enterprise systems
  • Targeting $16B+ quantum-resilience market

Crypto Initiative

About ATNA-CIPHER (ACL)

About ATNA-CIPHER (ACL)

ATNA-CIPHER (ACL), based in California, develops symmetric encryption solutions designed for environments requiring quantum encryption resilience.

Proprietary atnaCM Cipher-Mode

Proprietary atnaCM Cipher-Mode

At the core of the initiative is the proprietary atnaCM cipher mode, a coeval-authenticated encryption scheme built to deliver strong security against both classical and quantum computational threats.

Advanced Quantum-Resilient Symmetric Encryption

Advanced Quantum-Resilient Symmetric Encryption

The atnaCM framework incorporates several new features in a single cipher mode, supporting associative quantum encryption operations that go beyond the limits of traditional symmetric ciphers.

Large-Scale Coeval Multiprocessor Design

Large-Scale Coeval Multiprocessor Design

Its large-scale coeval multiprocessor architecture is engineered for ultra-high-speed applications, including secure LANs, RDMA networks, and AI-scale compute clusters exceeding tens of thousands of nodes.

Standards & Strategic Alignment

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NIST Accordion Mode Specification (NIST IR 8552)

Alignment with emerging authenticated-encryption mode research and multi-stream security models.

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DoDIN APL · CNSA 2.0 · CSfC

Designed to support Department of Defense information networks and next-generation classified architectures.

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NCSC / CESG (UK)

Consideration of UK national cybersecurity principles and cryptographic evaluation frameworks.

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ANSSI (France)

Compatibility with European sovereign security requirements and cryptographic assurance models.

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ENISA (European Union)

Strategic alignment with EU cybersecurity policy, resilience planning, and cross-border standards.

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Other International
Standards Bodies

Architected to adapt to allied cryptographic standards and evolving global security frameworks.

Associative Design & Disruption

  • Associative Design Foundations

    atnaCM is built on an associative encryption model, enabling cryptographic operations to participate directly in system behavior rather than operate as an external security layer.
  • Implications for Modern Security Models

    Associative encryption introduces structural shifts across security domains, including:

  • Data Loss Prevention (DLP): cryptographic tagging and 
enforcement at scale
  • Zero Trust Network Access (ZTNA): encryption-native trust segmentation
  • Firewalling: policy-driven cryptographic flow control
  • Load Balancing: security-aware traffic distribution
  • Secure Networking: encryption embedded into topology and routing logic
  • A Leap-Ahead Migration Path

    This architecture is not an incremental enhancement of existing cryptography. It represents a forward migration path toward security systems designed for quantum resilience, scale, and architectural convergence.