As artificial intelligence systems become embedded in enterprise workflows, the role of quality assurance (QA) must expand. Traditional approaches to software testing β functional validation, regression, performance β are necessary but insufficient. AI systems introduce a new class of risks: hallucination, bias, prompt injection, and security vulnerabilities. Addressing these requires a structured methodology: AI Red Teaming.
Red teaming is an adversarial evaluation methodology where testers simulate realistic attacks on AI systems. The goal isnβt just to confirm functionalityβitβs to probe weaknesses under hostile scenarios, uncover hidden vulnerabilities, and ensure resilience when the AI is pushed to its limits.
Unlike standard QA, which checks whether features work, AI red teaming asks:
Can the model be tricked into leaking sensitive information?
Can adversarial prompts bypass safety guardrails?
Does the application remain compliant with data privacy and regulatory requirements?
Will bias, unfairness, or misinformation slip through in high-stakes situations?
Recent work in AI red teaming highlights several domains of concern:
Failure Modes: Hallucination, bias, fairness, alignment with human values, context window limitations, and performance consistency.
Security & Compliance: Regulatory adherence (e.g., GDPR, SOC2, ISO27001) alongside resilience to prompt injection and data exfiltration attempts.
Evaluation Tools: Frameworks such as Promptfoo allow for repeatable evaluation of large language models (LLMs) across multiple providers, using structured prompts, assertions, and metrics.
Attack Vectors: Prompt injection, jailbreaks, ASCII smuggling, obfuscation techniques, and BOLA (Broken Object-Level Authorization) exploits.
Data Risks: Extraction of personally identifiable information (PII) across financial, medical, and social domains.
Harmful Content Generation: Ensuring systems do not enable self-harm, hate speech, or disallowed outputs.
Red teaming is the practice of systematically probing a system to expose weaknesses before adversaries or real-world use do. In the context of AI, this means going beyond accuracy metrics and deliberately testing models under adversarial conditions. The goal is not to βbreakβ the system, but to reveal failure modes and inform mitigation strategies.
An effective red team evaluation combines multiple testing dimensions:
Prompt injection resilience (e.g., hidden instructions in documents).
PII handling (detecting and blocking personal data leakage).
Secrets protection (never outputting API keys, tokens, or credentials).
Tests for age, gender, race, and disability-related bias.
Ensures outputs remain inclusive and non-discriminatory.
Detects attempts to generate hate speech, harassment, self-harm, or unsafe instructions.
Benchmarked against SOC 2, ISO/IEC 27001, NIST AI RMF, and OWASP LLM Top-10.
By stress-testing across these dimensions, enterprises can build a portfolio of evidence demonstrating that their AI systems meet both ethical and regulatory standards.
AI red teaming shifts the mindset from βfinding bugsβ to assuring trust. It enables enterprises to:
β Deploy AI responsibly at scale.
β Strengthen user and regulator confidence.
β Catch risks before they escalate into brand or compliance failures.
In short: red teaming makes AI safe for the environments that depend on it.
Effective red teaming is conducted at both the model level (evaluating LLM outputs directly) and the application level (assessing how systems built on top of models handle risk). A case study in enterprise contexts demonstrated that testing across OpenAI, Anthropic, and LM Studio via Promptfoo surfaced vulnerabilities and validated mitigation guardrails in a B2B multi-LLM assistant.
By configuring providers, exploring prompt types (text, variable, multiline, file-based, conversational), and asserting against harmful outputs, a repeatable framework was established for evaluation. This structured process transforms ad hoc βjailbreak attemptsβ into a methodical discipline of AI assurance.
Both are essential in AI assurance, but they serve different purposes and answer different questions.
When to use it:
During model selection and benchmarking, typically via API keys provided by vendor.
When validating core model behaviors such as factuality, bias, hallucination, fairness, and consistency.
When comparing base models or fine-tuned variants to decide which is most suitable for your application.
Goal: Understand the intrinsic properties of the model itself, before it is embedded into a larger system.
Example: Measuring how often a model hallucinates under factual Q&A prompts, or whether it systematically exhibits bias.
π Think of it as: βWhat are the raw strengths and weaknesses of this model before I build on top of it?β
When to use it:
Once a model is integrated into a system or product, with prompts, guardrails, and middleware in place.
When validating end-to-end system safety including context windows, retrieval-augmented generation (RAG), role-based access, and custom guardrails.
When testing for real-world exploits like:
Goal: Assess how the entire application behaves under adversarial conditions. Example: Ensuring a B2B assistant cannot be tricked into revealing sensitive customer data, even if the base model itself is robust.
π Think of it as: βDoes the system Iβve built around the model remain safe, compliant, and resilient?β
Beyond one-off red teaming, conversation prompts simulate realistic multi-turn usage. This captures risks that only appear over extended dialogues:
Retrieval Accuracy: Confirming Jira issue statuses, sprint details, or Confluence content remain consistent across turns.
RBAC Enforcement: Ensuring restricted Confluence or Figma data cannot be accessed even with prompt injection tricks.
Context Window Stress: Detecting context erosion or contradictions after 10β20 dialogue turns.
Adversarial Resilience: Probing via jailbreaking and social engineering scenarios.
π With Promptfoo, conversation prompts can be scripted, replayed, and logged β enabling repeatable, evidence-based QA at the application level.
Model testing = lab conditions. Is the model itself reliable?
Application red teaming = field conditions. Is the deployed system resilient in real-world adversarial scenarios?
Conversation prompt testing = user simulation. Does the system stay reliable across realistic multi-turn interactions?
π‘ Skipping any of these creates blind spots: a βgoodβ model can still fail when embedded in an app, and a seemingly βsafeβ app can degrade under multi-turn dialogue.
Hallucination
Bias & fairness gaps
Misalignment with human values
Context window limitations
Performance consistency under varied inputs
π These are systemic properties of the model itself. They can be discovered with careful experimentation, structured datasets, and benchmarking.
Red teaming is about probing weaknesses intentionally β simulating how malicious or edge-case users might break the system.
Prompt injection and jailbreak attempts
ASCII smuggling / obfuscation
Data exfiltration (PII, sensitive context)
Security exploits (e.g., BOLA in AI-powered apps)
Harmful content requests (self-harm, hate, disallowed topics)
π Red teaming exposes vulnerabilities under attack conditions, but it is often unstructured and exploratory unless paired with a framework.
This is where frameworks like Promptfoo come in. They:
Provide a repeatable way to test both failure modes and adversarial vectors.
Let you create custom prompts, variables, and scenarios (e.g., multilingual injections, long-context stress tests, or compliance checks).
Allow assertions & metrics to turn βdid it fail?β into quantifiable results.
Support cross-provider benchmarking (OpenAI vs Anthropic vs LM Studio, etc.).
Enable continuous regression testing β running the same red-team suite whenever models or prompts change.
π Think of Promptfoo as turning red teaming from art into science. Instead of just βtrying random attacks,β you build custom test suites that ensure consistent coverage and measurable outcomes.
Red Teaming = Find creative, real-world vulnerabilities.
Promptfoo (or similar frameworks) = Encode those findings into structured test cases for repeatable evaluation across time, models, and systems.
Without a framework β red teaming is a one-off, difficult to scale. Without red teaming β frameworks test only what you already thought of, missing novel exploits.
π‘ Together, they form a feedback loop:
Red teaming discovers new attack/failure vectors.
Framework captures them as custom prompts for ongoing regression testing.
Continuous improvement cycle strengthens AI assurance.