The latest generation of artificial intelligence systems can analyze volumes of code far beyond what human teams can realistically review within operational timeframes.
Initiatives such as the GLASSWING project, supported by a consortium of leading cloud, cybersecurity, software, and financial organizations, illustrate this transformation. Their objective is straightforward: identify vulnerabilities before they can be exploited by malicious actors.
Today's cybersecurity industry is built around a common principle:
Identify vulnerabilities before attackers do.
Code audits, penetration testing, EDR platforms, antivirus solutions, Security Operations Centers (SOCs), and now advanced AI systems all pursue this objective.
These approaches significantly reduce risk.
However, they can never prove that vulnerabilities do not exist.
Even a thoroughly analyzed application can be compromised after deployment through:
• Supply chain attacks;
• Memory corruption;
• Component compromise;
• Unauthorized modification of software behavior;
• Advanced Persistent Threat (APT) operations.
As a result, modern cybersecurity remains fundamentally probabilistic.
VALIDY TECHNOLOGY introduces a complementary approach.
Rather than attempting to predict attacks, VALIDY ensures that software executes exactly as it was validated during compilation.
This assurance is provided through a Runtime Root of Trust embedded directly within the microprocessor.
The objective is no longer limited to reducing the likelihood of an attack.
The objective is to prevent unauthorized software manipulation from producing operational consequences.
Systems such as CLAUDE MYTHOS enable:
• Automated code analysis;
• Accelerated vulnerability discovery;
• Identification of complex software flaws;
• Reduction of software defects before deployment.
VALIDY provides:
• Runtime integrity assurance;
• Protection against unauthorized modification;
• Real-time detection of execution corruption;
• Protection of software know-how and intellectual property;
• Protection against reverse engineering.
The combination of Defensive AI and VALIDY TECHNOLOGY enables a significant evolution in cybersecurity.
Artificial Intelligence reduces the likelihood of introducing vulnerabilities.
VALIDY TECHNOLOGY reduces the ability to exploit those vulnerabilities.
This complementary relationship marks the transition:
from cybersecurity based primarily on threat detection
to
cybersecurity based on both threat detection and execution assurance.
This approach is particularly relevant for:
• Energy networks;
• SCADA and industrial control systems;
• Healthcare infrastructure;
• Financial systems;
• Satellite platforms;
• Datacenters;
• Cloud infrastructure;
• Defense systems;
• Artificial Intelligence platforms.
Within these environments, the challenge is not merely to detect an attack. The challenge is to ensure that an attack cannot achieve its intended effect.
AI training and inference environments are rapidly becoming strategic targets.
VALIDY TECHNOLOGY helps protect:
• AI training pipelines;
• GPU computing infrastructure;
• Inference environments;
• Autonomous systems;
• Robotics platforms;
• Unmanned aerial systems (UAS);
• Intelligent vehicles.
This protection is achieved with extremely low computational overhead through continuous runtime verification mechanisms based on highly efficient elementary operations.
The Runtime Root of Trust for Critical Infrastructure, Artificial Intelligence, and Trusted Digital Systems.
> Read the Strategic Doctrine Paper