Our technology stack is built on formal verification, a method of mathematically proving that software satisfies critical security and correctness properties. While these techniques have historically been confined to academic research or isolated components, IronVelo applies them to the construction of full operational infrastructure.
All IronVelo systems are built on a foundation of internally developed, formally verified core libraries. These libraries are engineered under strict structural constraints intended to ensure that their correctness proofs remain valid in real operational environments, not just in idealized models. The stack is designed to operate within the realities of finite memory, bounded stacks, and deterministic execution on physical hardware.
By constructing systems on this verified foundation, IronVelo enables the development of high-performance infrastructure whose critical security properties are guaranteed by design rather than inferred through testing and monitoring.
Our goal is simple:
To make formally verified, high-performance software a practical engineering discipline rather than a research topic.
1. Core Infrastructure Components
The following systems represent IronVelo's current operational infrastructure components, built on top of our verified core stack.
IronVelo delivers two integrated pillars of high-assurance access control. While they can be deployed independently, together they form a unified and provable "Zero Trust" architecture.
1.1. Scope-Forge: Verified Policy and Authorization
Scope-Forge is a formally verified policy language and runtime that eliminates the "Policy Gap," which is the discrepancy between intended security intent and actual enforcement. It transforms access control into a type-safe mathematical constraint system that supports complex, multi-domain C2 relationships without sacrificing formal guarantees.
1.2. IronVelo Identity Provider (IdP): High-Assurance Identity
The IronVelo IdP is a "clean-slate" authentication system designed for contested environments. By utilizing an Affine Key Subsystem, it ensures that every authentication artifact is atomically invalidated upon use. This renders replay attacks cryptographically infeasible and enables instant, global revocation of compromised credentials.