AI red teaming has evolved. This blog post explores agentic risks, adversarial threats, and how enterprises can secure AI systems across the full stack.
As AI systems move from experimental tools to operational infrastructure, the nature of risk has changed dramatically. What was once a question of model accuracy is now a broader challenge of system integrity, adversarial resilience, and real-world impact.
In a recent discussion, Lee Weiner sat down with AI red teaming experts John Vaina and Gavin Klondike to revisit how the threat landscape has evolved over the past year.
The discussion reveals a clear shift. AI security is no longer theoretical. It is operational, complex, and deeply intertwined with enterprise and national security concerns.
A year ago, much of AI security focused narrowly on model-level vulnerabilities. That scope has expanded.
Today’s red teaming efforts simulate attacks across the entire AI stack, including:
Modern red teaming is no longer about probing isolated systems. It is about understanding how interconnected components behave under adversarial pressure.
This shift reflects a fundamental truth. Risk emerges at the seams. Vulnerabilities often appear in how systems are composed, orchestrated, and exposed.
One of the most significant changes over the past year is the rapid adoption of agentic AI systems.
These systems are designed to take autonomous actions, interact with external tools and APIs, and operate across multiple steps and decision points. While this capability unlocks powerful new use cases, it also introduces entirely new categories of risk.
Traditional security assumptions begin to break down when AI systems can execute unintended actions, chain decisions across environments, and amplify even minor prompt manipulations into real-world consequences. What might begin as a subtle input can cascade into a sequence of actions with material impact.
As a result, the attack surface has expanded beyond static inputs to include dynamic, evolving behaviors across interconnected systems.
AI red teaming is no longer experimental or confined to academic research. It has become an active, high-demand discipline across government agencies, frontier AI labs, and large enterprises.
Organizations are increasingly conducting continuous adversarial simulations to identify weaknesses before they are exploited in real-world environments. This shift reflects a broader recognition that AI systems are now mission-critical, that failures can have material consequences, and that threat actors are actively probing these systems for vulnerabilities.
Security is now foundational.
Another defining shift over the past year is the growing convergence of AI security and national security, elevating AI risk from a technical concern to a matter of strategic importance. As AI systems are embedded into critical functions like intelligence analysis, cyber defense, and infrastructure operations, a single vulnerability can have consequences that extend far beyond a single organization.
Experts in AI red teaming are now contributing to policy and strategic initiatives through organizations like the Institute for Security and Technology. This convergence underscores a critical shift. AI systems are increasingly treated as infrastructure, and their vulnerabilities carry potential geopolitical implications.
As a result, the conversation is not limited to engineering teams. It now includes policymakers, regulators, and national security stakeholders.
Several recurring challenges are emerging that need to be addressed to secure AI systems.
Addressing these challenges requires more than incremental process improvements.
Organizations need purpose-built tools that can simulate adversarial behavior, provide continuous visibility into system performance, and evaluate risk across the full AI stack. By automating key aspects of red teaming and security testing, these platforms help bridge the talent gap, enabling existing teams to operate with the depth and consistency of specialized experts. Just as importantly, they make it possible to embed security into the development lifecycle, transforming AI security from a reactive exercise into a scalable, proactive capability.
Conventional security frameworks were not designed for AI-driven systems. They were not designed to assess model intent, conversational context, or autonomous tool orchestration. They typically assume:
AI systems violate all three assumptions, as they are:
AI systems require a new security mindset. This mindset must combine adversarial thinking with behavioral testing and continuous monitoring. It must also be flexible enough to evolve as quickly as AI capabilities are.
The key takeaway from our red team experts is clear. AI security must be continuous, not episodic.
To achieve this, organizations need to test systems regularly under adversarial conditions. This should include an evaluation of the full AI stack – not just models but also the applications and agents now in widespread use. In addition, the behavior and performance of AI systems should be monitored in production environments. This is particularly important because in AI systems, the same inputs can elicit different outputs.
The key here is that this is not a one-time audit. Security needs to be integrated into the AI development lifecycle as an ongoing discipline.
The past year has transformed AI security from a niche concern into a core operational requirement.
As AI systems become more autonomous, interconnected, and impactful, the stakes continue to rise. The organizations that succeed will be those that:
We believe that understanding how AI systems fail is the first step toward making them trustworthy.
AI red teaming is the practice of simulating adversarial attacks against AI systems to uncover vulnerabilities before attackers exploit them. It has grown from probing model-level weaknesses into full-stack testing that covers prompts, retrieval systems, agentic workflows, and deployment infrastructure. Organizations use it to identify risks like prompt injection, jailbreaking, and data leakage while systems are still in development, then continuously after deployment.
Traditional security testing assumes deterministic behavior, predictable inputs and outputs, and static attack surfaces. AI systems break all three assumptions because they are probabilistic, context-sensitive, and continuously evolving. AI red teaming accounts for this by combining adversarial thinking with behavioral testing and continuous monitoring, evaluating how interconnected components behave under pressure rather than checking isolated inputs against fixed rules.
Agentic AI systems take autonomous actions, interact with external tools and APIs, and operate across multiple steps and decision points. This raises risk because a subtle prompt manipulation can cascade into a chain of actions with material real-world impact. The attack surface expands beyond static inputs to include dynamic, evolving behaviors across interconnected systems, which traditional controls were never designed to catch.
AI systems are increasingly embedded in critical functions like intelligence analysis, cyber defense, and infrastructure operations, so a single vulnerability can have consequences far beyond one organization. AI red teaming experts now contribute to policy through bodies like the Institute for Security and Technology. As AI is treated as infrastructure, its vulnerabilities carry geopolitical implications, drawing in policymakers, regulators, and national security stakeholders.
AI red teaming should be continuous, not a one-time audit. Because the same input can produce different outputs in AI systems, organizations need to test the full stack regularly under adversarial conditions and monitor behavior in production. Security should be integrated into the AI development lifecycle as an ongoing discipline, allowing teams to catch weaknesses as capabilities and threats evolve.
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