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Introducing the Red Agent POV Series
An inside look at how the Red Agent, our AI-Powered Attacker, uncovers complex, exploitable risks in the wild
Malicious actors are actively weaponizing AI to scan and exploit public-facing environments at unprecedented speed and scale. To stay ahead, defenders have had to evolve- and AI-powered offensive security has made massive leaps. Current frontier models, paired with our purpose-built agent harness, are already finding real, exploitable, multi-step chains on a daily basis. With these models, AI-powered offensive security is now able to find flaws that would have seemed out of reach for automated testing just a year ago. These flaws are non-trivial even for expert pentesters and bug bounty hunters working manually.
This is why we built theRed Agent, our AI-powered pentester that operates at machine speed to help teams stay ahead in the AI era. By continuously reasoning about application behavior, it synthesizes the kind of complex, logic-driven vulnerabilities and multi-step attack chains that human testers take days of manual work to uncover.
When adversaries are continuously scanning your perimeter with AI, relying on periodic manual testing will not keep up. For security and offensive teams, turning on the Red Agent is an immediate necessity to find and close your critical exploitable risks before adversaries find them.
We are excited to introduce a new blog series from the WizResearch team,, where we pull back the curtain to give you an inside look at how the Red Agent uncovers these complex, exploitable risks in production. Throughout this series, we will focus on specific bug classes discovered by the Red Agent and share real examples of how it reasons through APIs and finds context-driven vulnerabilities. Today, we are launchingthe first blogin this series, detailing how the Red Agent uncovered a critical SSRF vulnerability in production systems.
The Red Agent is Wiz's AI-powered pentester, built to continuously discover logic-driven vulnerabilities and misconfigurations across publicly facing environments. It condenses what traditionally took human testers hours or days of manual work into an autonomous, continuous process, operating at machine speed without sacrificing depth. The Red Agent does so by reasoning about the application- it builds hypotheses from failed probes, accumulates constraints from blocked attempts, and synthesizes multi-step attack paths that only emerge from understanding how an application actually behaves. When a request gets blocked, the Red Agent uses that as a data point to narrow the solution space for the next attempt. This allows it to uncover sophisticated attack chains at scale, giving defenders the ability to find and remediate critical risks before adversaries can exploit them.
To give an idea of what defending at machine speed looks like, we looked at the aggregate data from the Red Agent’s performance over a one-month period.
Operating at a scalethat would be impossible for a human alone, the Red Agent completed hundreds of thousands of autonomous scansacross~1,000 environments.In that window, it surfacedover17,000 unique findingswhich included over5,500 high and critical vulnerabilities, which represent validated, multi-step attack chains in production environments.
Here is a high-level look at the key takeaways from those findings:
Access control remains the dominant failure modeAuthorization and access control flaws remain the single biggest gap in modern cloud applications.54%of all unique findings stemmed from broken access control. This includes authentication bypasses, unrestricted access to components or sensitive information, IDOR/BOLA, BFLA, and default credentials. These represent real, production applications that are routinely shipped with entirely unprotected management APIs and exposed internal endpoints.
Leaked secrets present a massive, high-severity footprintInsecure secrets expand the blast radius across cloud environments exponentially. Among all exposed secrets discovered by the Red Agent, over61%are severe enough to be categorized as Critical or High severity. A closer look at the data shows exactly what types of secrets are most commonly exposed, proving that a significant percentage of these leaks directly expose core structural components:
17.6%are exposed cloud credentials
16.5%are leaked API keys
8.4%are exposed JWT or session tokens
4.7%are exposed private keys and TLS certificates
This architecture-wide exposure proves that hardcoded credentials are fundamentally granting attackers immediate, administrative-level entry points across infrastructure.
Remote Code Execution (RCE): Systemic, high-impact riskRCE is typically treated as rare, but in practice, the Red Agent found code execution paths across a significant share of environments- not edge cases, but validated RCE with proof of exploitability.
SQL injection: A consistently severe riskSQL and NoSQL injection remain among the oldest vulnerability classes in web security, as well as among the most severe. Over52%of injection findings were of Critical or High severity. SQLi typically means direct database access, sensitive data leakage, and reputational damage, and in many cases can open a path to a deeper compromise or even RCE.
PII and PHI exposure is prominentRed Agent found that data privacy risks are actively exposed in production- this is the breakdown across tested environments:
54.1%of the exposures directly involved internal employee records.
28.6%exposed standard user PII.
10.2%compromised customer records.
5.8%exposed sensitive patient data (PHI).
1.3%leaked student records.
JWTalg:nonequietly persists in productionWe were surprised to see how frequent thealg:nonemisconfiguration was, accounting for63.9%of all JWT authentication bypass findings. Out of theJWT bypass findings, another8.3%of cases failed to validate signatures altogether, with the remaining27.8%being due to miscellaneous JWT infrastructure bugs. We see this issue persisting due to the underlying token-validation libraries defaulting to insecure modes, and development teams continue to ship code without overriding those defaults-essentially leaving a backdoor open for trivial authentication bypass.
Seeing the Red Agent chaining together these attack paths reveals the true power of an AI-driven offensive approach, leveraging a deep reasoning process that enables it to uncover the hidden, logic-driven vulnerabilities that require context to find.
Thefirst blogin our series dives into a real-world scenario where the Red Agent uncovered a non-trivial SSRF in a GCP Cloud Run service with a URL parameter that only accepts GitHub links.
Over 3 scan runs and 96 iterations, the Red Agent built a mental model of the application's validation logic, learned from blocked attempts, and ultimately discovered a bypass technique that would be impossible to find leveraging signature-based scanning- escalating from SSRF to full credential and source code extraction, all without authentication.
Read the full breakdownin the blog. You can find all the Red Agent POV series blogshere, and stay tuned as we continue to share real-life Red Agent findings in the coming weeks.
Want to see the Red Agent in action? Schedule alive demowith our team.
New exposure management dashboard helps organizations align with CTEM to stay ahead in an era of AI exploiting vulnerabilities faster than ever
The White House Memorandum puts in place an “adaptive framework,” where agencies make risk-based, prioritized logging decisions.
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