EigenQ

EigenQ Quantum Random Number Generator (QRNG-DRBG)

EigenQ

The EigenQ Quantum Random Number Generator (QRNG-DRBG) is a cutting-edge hardware-based solution designed to provide true, unpredictable randomness for cryptographic applications. Leveraging the fundamental principles of quantum mechanics, this device extracts entropy from genuine physical quantum processes, such as photon behavior, ensuring that the generated random numbers are inherently unpredictable and irreproducible. This stands in stark contrast to traditional pseudo-random number generators (PRNGs), which rely on deterministic algorithms and can be compromised if their seed is discovered. The QRNG-DRBG serves as a high-quality entropy source, crucial for generating robust cryptographic keys, tokens, and initialization vectors that form the backbone of secure encryption systems. By delivering quantum-resilient randomness, it effectively mitigates the 'seed' vulnerability found in classical random number generation, thereby protecting sensitive data against sophisticated attacks, including those posed by future quantum computers. This product is engineered for mission-critical systems across various sectors, including defense, intelligence, finance, and healthcare, facilitating a seamless transition to post-quantum cryptography (PQC) and ensuring long-term data integrity and confidentiality. It combines the true random output of the QRNG with a Deterministic Random Bit Generator (DRBG) to efficiently produce a high volume of cryptographically secure random numbers for diverse security needs.

FIPS 204 (ML-DSA) Certified Hardware Accelerator

EigenQ

The EigenQ FIPS 204 (ML-DSA) Certified Hardware Accelerator is a cutting-edge solution designed to provide robust, quantum-resistant digital signatures. This hardware accelerator implements the Module-Lattice-Based Digital Signature Algorithm (ML-DSA), a standard defined by NIST FIPS 204, specifically engineered to withstand attacks from future quantum computers. It is a critical component of EigenQ's PQC+™ portfolio, enabling organizations to transition to post-quantum cryptography without extensive infrastructure re-architecture. The accelerator ensures high performance with up to 10x higher throughput for post-quantum cryptographic operations, coupled with low memory overhead, making it suitable for demanding enterprise and government applications. It integrates hardware-anchored roots of trust and quantum-grade entropy generation to establish a strong foundation of security. The product is designed for deployment in various environments, including servers, appliances, and edge devices, supporting use cases such as secure boot, secure updates, and comprehensive data and message authentication. By offering FIPS 204 certified hardware, EigenQ helps organizations meet federal mandates and global compliance standards for quantum-safe migration, protecting sensitive data and communications against both current and emerging quantum threats.

Secure Compute

EigenQ

EigenQ Secure Compute is a cutting-edge hardware-anchored solution designed to protect sensitive workloads and cryptographic keys against both classical and emerging quantum computing threats. It enables organizations, particularly in government, defense, and critical infrastructure, to achieve quantum readiness and meet stringent regulatory mandates like the US Government's 2027 Post-Quantum Cryptography (PQC) migration deadline. The product integrates seamlessly into existing infrastructure, eliminating the need for extensive re-architecture, and safeguards against 'Harvest-Now, Decrypt-Later' attacks where encrypted data is harvested today for future quantum decryption. By leveraging FIPS 203/204 certified PQC hardware, quantum-grade entropy, and cryptographic agility, Secure Compute ensures robust, future-proof security for servers, gateways, edge systems, and long-life devices, even under active compromise. Its focus on high-performance, side-channel resistant PQC implementations makes it suitable for demanding enterprise and government scale deployments.

Secure Networks

EigenQ

EigenQ Secure Networks is a pioneering cybersecurity solution engineered to safeguard critical infrastructure and sensitive data against the imminent threats posed by quantum computing. This product provides a robust, infrastructure-level defense by implementing advanced Post-Quantum Cryptography (PQC) across diverse IT environments, including hybrid and multi-cloud deployments. Its primary purpose is to eliminate the "harvest-now, decrypt-later" vulnerability, where encrypted data collected today could be decrypted by future quantum computers. Secure Networks integrates hardware-anchored PQC to protect workloads, storage, and all forms of network communication, such as VPNs, Software-Defined Networking (SDN), and edge network fabrics. It establishes hardware-rooted trust for devices, ensuring that only authenticated components interact within the network. Furthermore, the solution emphasizes crypto agility, allowing cryptographic protocols to evolve seamlessly with emerging standards and threats, thereby future-proofing an organization's security posture for decades. Designed for high performance and resilience, it offers superior PQC throughput and resistance to side-channel attacks, making it an indispensable tool for government agencies, defense organizations, and enterprises seeking to achieve quantum readiness and comply with evolving regulatory mandates.

FIPS 203 (ML-KEM) Certified Hardware Accelerator

EigenQ

The EigenQ FIPS 203 (ML-KEM) Certified Hardware Accelerator is a specialized hardware solution engineered to deliver robust, quantum-safe cryptographic capabilities for critical infrastructure, government, and enterprise sectors. This accelerator is designed to efficiently process the computationally intensive Module-Lattice-Based Key-Encapsulation Mechanism (ML-KEM), a standard defined by NIST FIPS 203, thereby facilitating a seamless and high-performance transition to post-quantum cryptography (PQC). By offloading complex cryptographic operations to dedicated hardware, it ensures rapid and secure key generation, encapsulation, and decapsulation, protecting symmetric keys from the existential threat posed by future quantum computers. The solution integrates hardware-anchored trust, validated quantum-resistant entropy, and qTPM roots of trust, effectively mitigating vulnerabilities inherent in software-only PQC implementations, such as predictable entropy, forgeable identities, and susceptibility to firmware tampering. It supports all specified ML-KEM security levels (ML-KEM-512, ML-KEM-768, ML-KEM-1024) and features constant-time execution to provide strong resistance against side-channel attacks. This accelerator is ideal for securing sensitive workloads, network communications (including VPNs and SDN fabrics), and establishing hardware-rooted device identities across diverse deployment environments, including hybrid and multi-cloud infrastructures. It is built to comply with stringent federal and global security standards, including NSA CSfC readiness, enabling organizations to meet regulatory mandates and achieve a truly quantum-secure posture.

Secure Device Identity

EigenQ

EigenQ Secure Device Identity is a cutting-edge solution designed to establish and maintain hardware-rooted trust for critical infrastructure components such as servers, gateways, edge systems, and long-life devices. It addresses the emerging threat landscape posed by quantum computing, specifically the 'Harvest-Now, Decrypt-Later' attack vector, by enabling a seamless and secure transition to post-quantum cryptography (PQC). The product ensures that device identities are non-forgeable and validated through quantum-safe mechanisms, leveraging technologies like quantum Trusted Platform Modules (qTPM) and quantum random number generators (QRNGs). By anchoring trust in hardware, it mitigates risks associated with software-only PQC implementations, including weak entropy, forgeable identities, and vulnerabilities to firmware and supply-chain attacks. This solution is crucial for defense agencies, critical infrastructure operators, and large enterprises seeking to protect sensitive data and systems against both current and future quantum threats, ensuring compliance with evolving regulatory mandates for quantum-safe migration. It provides a foundational layer of security by verifying the integrity and authenticity of devices before network access or data processing is granted, thereby enhancing overall system resilience and trustworthiness.