What if your AI-powered application leaked sensitive data, generated harmful content, or revealed internal instructions – and none of your security tools caught it? This isn’t hypothetical. It’s happening now and exposing critical gaps in how we secure modern AI systems.
When AI systems like LLMs, agents, or AI-driven applications reach production, many security teams initially turn to familiar tools: AST solutions like SAST, SCA, and compliance checklists. But those tools weren’t designed for AI’s unique behavior. Unlike traditional applications, AI models don’t follow predictable code logic. Their risks emerge dynamically – influenced by user input, context, and adversarial probing. That’s why testing how they behave under real-world pressure is essential.
Early AppSec focused on static analysis – until attackers showed that real risk often lives in dynamic behavior. With AI, the distinction is even more pronounced. These are probabilistic, trained systems, and their vulnerabilities don’t live in the code – they emerge during interactions.
That doesn’t mean static analysis is irrelevant. In fact, the next generation of AI-native security combines dynamic and static techniques, each tailored to expose specific AI threats. What isn’t effective is relying on legacy tools not built for AI-specific risks like prompt injection, data leakage, and hallucination.
Red teaming is one of the most effective ways to uncover these behavioral vulnerabilities. It stress-tests AI systems in adversarial scenarios, revealing issues that only appear at runtime. But it’s not the only piece of the puzzle – it complements broader efforts to adapt static and dynamic analysis for AI’s unique threat landscape.
Today, teams are operationalizing AI red teaming in three main ways:
1. Automated SaaS platforms
Solutions like Mend AI Red Teaming provide scalable, continuous testing that integrates into CI/CD pipelines. These platforms simulate a wide range of attack techniques, from prompt injection and data leakage to jailbreaks and hallucinations, across LLMs, AI agents, and broader AI-driven applications. They typically offer:
By enabling repeatable, automated testing as part of development workflows, these platforms help teams detect vulnerabilities before they reach users.
2. Open source frameworks
Projects like Microsoft’s PyRIT offer modular toolkits for teams building their own red teaming infrastructure. They provide full control over test logic, threat simulation, and customization – making them appealing to larger organizations with the resources to invest in long-term, internal frameworks.
However, these solutions require significant upkeep: ongoing threat model updates, input tuning, and pipeline integration. They offer power and flexibility, but come with higher operational overhead.
3. Consultancy services
Firms like CrowdStrike and Trail of Bits offer bespoke red teaming engagements, often focused on high-risk deployments. These services include adversarial scenario design, expert-led probing, and deep security assessments.
While highly effective, these engagements are typically time-boxed and resource-intensive. Without ongoing integration into development workflows, their impact may diminish over time unless paired with internal follow-through.
Red teaming AI systems is still a developing practice, and there’s no industry-wide standard for what “good” coverage looks like. Teams are building that playbook in real time.
Meanwhile, attackers aren’t waiting. Every AI-driven system shipped without adversarial testing increases exposure.
Forward-thinking organizations are building AI security programs that reflect these new realities. They:
Most importantly, they recognize that securing AI means testing how it behaves under pressure – not just how it was built.