Invary extends Zero Trust to the system layer by continuously verifying Runtime Integrity.
Powered by technology exclusively licensed from the NSA's Laboratory for Advanced Cybersecurity Research, Invary exposes unauthorized system changes without relying on signatures or behavioral patterns.
AI-driven and zero-day attacks operate without prior indicators, targeting the operating system that is assumed trustworthy. When the system generating telemetry is compromised, every control built on it becomes unreliable and security decisions degrade.

Public sector organizations managing sensitive data and mission-critical systems require verified assurance to detect what EDR/XDR cannot, protect existing security investments, reduce breach risk, and maintain operational continuity.

Invary validates whether systems are operating as intended and exposes unauthorized change directly, regardless of technique. This restores confidence in the data on which security teams and leaders depend.
Before incidents, Invary confirms systems remain uncompromised. During response, teams make decisions based on verified conditions. After remediation, organizations confirm systems have returned to known good states. For public sector security teams, this means faster investigations, improved people efficiency, protected security investments, and reduced impact.
Reveals advanced kernel-level attacks that evade existing security tools
Verifies & attests to system integrity and data privacy in real time
Applies Zero Trust principles by removing implicit trust of the OS
Provides evidence to enhance efforts: SOC2, FedRAMP, CMMC, ATO, etc
Invary integrates with existing security operations and supports Windows and Linux deployment without replacing current tooling. Available as SaaS or on-premise deployment model, Invary covers attack classes that bypass traditional defenses while maintaining operational continuity.
Invary provides the continuous system integrity verification layer that results in fewer breaches, reduced disruption, and defensible security decisions.