Corvus.Quantum

System Architecture

Corvus.Quantum combines Apache Kafka's distributed streaming backbone with post-quantum cryptographic layers. The platform can be deployed on-premises or on cloud infrastructure using Azure Event Hubs with Kafka protocol support, enabling flexible deployment across classified and commercial environments. Data producers encrypt payloads using NTRUEncrypt before publishing to Kafka topics, and consumers decrypt only after key verification. A Zero Trust perimeter enforces continuous authentication at every boundary, while the key distribution layer supports both physical unclonable keys and Quantum Key Distribution protocols.

How It Works

The platform follows a five-stage secure communication pipeline. New participants enroll through a Zero Trust registration process, receive cryptographic keys via dual distribution channels, encrypt their data at the source application, and stream it through Kafka's fault-tolerant infrastructure. Recipients decrypt messages only after full key verification. Continuous security protocols ensure adaptive key rotation and persistent authentication throughout every session.

Key Features

Corvus.Quantum integrates six core capabilities into a unified platform, combining post-quantum cryptographic algorithms with enterprise-grade streaming infrastructure and a Zero Trust security model.

Defense in Depth

Corvus.Quantum employs a layered security model where multiple independent defenses protect mission-critical data. Each ring represents a distinct security barrier: the outermost Zero Trust perimeter continuously verifies all entities, Quantum Key Distribution secures key exchange, lattice-based NTRUEncrypt encryption protects data payloads, and physical unclonable key authentication gates access to the protected core. Compromising any single layer still leaves all inner layers intact.

Why Quantum-Proof

Classical encryption (RSA, ECC) relies on mathematical problems like integer factorization that quantum computers can solve efficiently using Shor's algorithm. Lattice-based cryptography operates in an entirely different mathematical domain: it hides secrets inside high-dimensional geometric lattices where finding the shortest vector is computationally infeasible for both classical and quantum machines. As the number of dimensions grows, the search space expands exponentially, making brute-force attacks impossible regardless of computing power.

CIA Triad Compliance

The platform is designed to fully address the three pillars of information security. Every architectural decision maps to maintaining confidentiality against quantum threats, ensuring data integrity through Zero Trust localized encryption, and guaranteeing availability through Kafka's distributed fault-tolerant infrastructure.

Technology Stack

Corvus.Quantum is built on mature, battle-tested technologies. Apache Kafka provides the distributed messaging backbone with cloud deployment supported via Azure Event Hubs (Kafka-compatible). NTRUEncrypt and CRYSTALS-Kyber deliver quantum-resilient cryptography, QKD protocols enable physics-based key exchange, and AES-256 secures data at rest. Dedicated SDKs for Python and Java allow rapid integration into existing military and enterprise systems.

Use Case: Unmanned Aerial Systems

Corvus.Quantum is battle-proven and currently operational in Ukrainian combat zones, securing drone communications across contested electromagnetic environments where adversaries actively intercept every available signal. Ukrainian UAV operations transmit mission-critical data — live video feeds, target coordinates, telemetry, and command signals — through airspace saturated with electronic warfare systems designed to capture and exploit communications.

Traditional encryption creates a dangerous false sense of security: intercepted data may be safe today, but adversaries can store it and decrypt it years later when quantum computers become available — exposing operationally sensitive intelligence long after the mission ends. This "harvest now, decrypt later" strategy is already being employed by state-level actors.

Corvus.Quantum eliminates this threat entirely. With lattice-based post-quantum encryption, intercepted drone communications are mathematically undecryptable — not just difficult, but provably infeasible for any computer, classical or quantum, now or in the future. Even if an adversary captures every byte of encrypted telemetry, video, and coordinates transmitted during a mission, they gain nothing. The data remains permanently locked without the physical unclonable keys and lattice-based key pairs that never traverse the network. This is not a theoretical capability — it is deployed and operational in one of the most demanding electronic warfare environments in modern history.

Target Audience

Contact