AI Red Teaming

AI red teaming is the practice of adversarially probing AI systems to find failures before attackers do.

AI Red Teaming

AI risk management is the structured practice of identifying, assessing, and treating risks arising from the development, deployment, and operation of AI systems. It applies the discipline of risk management to a class of systems that behave differently from conventional software in ways that matter for risk: AI systems are probabilistic, opaque, capable of being manipulated through their inputs, and able to act autonomously, amplifying harm faster than a human operator can intervene.

Conventional risk management asks what can go wrong and how likely it is. AI risk management asks the same question against a system whose failure modes are harder to enumerate, harder to detect, and harder to attribute than those of the systems most risk frameworks were built to address.

How AI Red Teaming Differs From Conventional Red Teaming

Conventional red teams test whether an attacker can gain access to a system. AI red teams test whether an attacker can get a system to act against its own constraints.

The tools are different. The methodology is different. An AI red teamer does not run a port scan. They craft prompts, construct adversarial inputs, embed instructions in documents, and chain multi-turn conversations designed to erode the model’s behavioral guardrails incrementally.

The failure modes are also different. A conventional system either grants access or it does not. An AI system exists on a spectrum of compliance, and the goal of AI red teaming is to map where on that spectrum the model breaks and under what conditions.

What AI Red Teaming Tests

Prompt injection resistance is the foundational test for any LLM deployment. The red team attempts to override the system prompt through direct user input and through indirect injection embedded in retrieved documents, tool outputs, and external content that the model processes. Success is when the model acts on injected instructions. Failure is partial: how far did the injection get, and what did it enable?

Jailbreaking and safety-bypass probes whether the model’s refusal behavior holds up under adversarial pressure. Red teams use role-play framing, hypothetical scenarios, encoded inputs, persona manipulation, and multi-turn escalation to test whether safety measures are robust or brittle under creative attack.

Excessive agency exploitation applies specifically to agentic systems. The red team attempts to cause the model to take unintended real-world actions through prompt injection or adversarial inputs, testing whether privilege constraints, action approval mechanisms, and human-in-the-loop controls hold under adversarial conditions.

Data extraction attempts to surface sensitive information from the model’s training data, system prompt, conversation history, or retrieved context. This includes testing whether the model can be caused to reproduce memorized training content, reveal confidential instructions, or leak data from documents it processed earlier in the session.

Multi-agent attack chaining tests agentic architectures where multiple AI components interact. A red team maps how a compromise at one point propagates through the system, whether a prompt injection against an upstream retrieval component can cascade into harmful actions by a downstream execution agent.

 

Frequently Asked Questions

AI risk management is the structured practice of identifying, assessing, and treating risks that arise from AI systems. It addresses failure modes specific to AI, including prompt injection, adversarial manipulation, training data poisoning, and autonomous agent behavior, that conventional risk frameworks were not designed to handle.

Conventional risk management focuses primarily on code vulnerabilities and process failures. AI risk management must also account for statistical behavior failures, input-stream attacks, inherited supply chain risks, and the amplified impact of autonomous agents. The risk surface is broader, and the failure modes are harder to detect.

OWASP GenAI Security Project’s Top 10 for LLM Applications provides the most security-specific guidance. NIST’s AI Risk Management Framework and ISO 42001 provide governance and management system structures. The EU AI Act imposes regulatory requirements on high-risk AI deployments. Effective AI risk management draws on all of them.

Start with inventory and classification: identify every AI system in operation and assess its risk level based on autonomy, data sensitivity, and potential impact. Apply the OWASP GenAI Security Project Top 10 for LLM Applications to any LLM-powered system. Assign clear ownership for each system’s risk profile and integrate risk assessment into the deployment process rather than treating it as a post-launch exercise.

Project Initiatives

Agentic App Security

The Agentic Security Research Initiative explores the emerging security implications of agentic systems, particularly those

Top 10 for LLM and GenAI

Focused on identifying, documenting, and raising awareness of the most critical security risks impacting Large Language Models (LLMs)

AI Red Teaming

This project establishes comprehensive AI Red Teaming and evaluation guidelines for Large Language Models (LLMs), addressing

Ask Sage, GenAI Security Advisor
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AI Red Teaming