Attackers don't see findings. They see paths.
A severity score describes a weakness in isolation. An adversary is interested in the third hop, not the first.
Capability
Web applications and APIs are not secure because a scanner found nothing critical. They are secure to the extent that an attacker cannot turn their weaknesses into unauthorized access, data exposure, credential theft, or a path deeper into the environment. RedMaw tests applications adversarially to prove what can actually be reached.
The question this answers
What can someone actually do with it?
Each hop validated by successful exploitation
The framing
What can someone do with it?
A missing authorization check matters because it may expose another customer's data. A leaked secret matters because it may authenticate to a cloud service. A session weakness matters because it may let an attacker become another user. A business-logic weakness matters because it may let someone perform an action the product never intended to allow.
RedMaw moves the conversation from vulnerability presence to exploitability and attacker outcome.
Authentication controls often look correct when they are tested only through expected user behavior. Adversarial testing asks whether the surrounding assumptions hold.
The goal is to establish whether a weakness can create real access inside the approved scope, not to note that a control exists.
Authorization flaws are contextual. An endpoint can work perfectly for the intended user and still expose data when an object identifier, role, request sequence or API parameter is manipulated.
Expected
GET /api/customers/4831/invoices
The application correctly returns the user's own invoice.
Adversarial
GET /api/customers/4832/invoices
The important question is what happens when the identifier changes to another customer's.
RedMaw tests whether those trust boundaries actually hold. Instead of reporting that an endpoint may be susceptible to broken object-level authorization, the objective is to validate whether unauthorized access is possible, and to preserve the evidence.
Modern products expose much of their business logic through APIs. The important signal is not how many endpoints exist. It is which endpoint behavior can be turned into unauthorized access or material impact.
Some of the most important application weaknesses are not software defects in the traditional sense. The application may behave exactly as implemented and still allow an attacker to abuse the workflow.
A fixed CVE library is not designed to understand every business-specific trust decision. Adversarial validation exists for precisely that gap.
A secret in a response, configuration file, repository, error message or exposed endpoint changes the meaning of an application weakness. The next question becomes: does the secret work, and what does it unlock?
Where authorized and supported, RedMaw validates credential and secret exposure rather than treating the presence of a string as the final finding. That is how an application issue becomes an attack path.
Comparison
A vulnerability scanner
It runs a known library of checks against your assets and tells you what resembles a documented weakness. That coverage is genuinely useful. Keep it.
RedMaw
It takes the weakness and attempts to turn it into access within approved scope, then keeps the evidence of what succeeded.
The scanner is useful for coverage. RedMaw is useful for proof. Most mature programs should run both.
Validated findings enter the RedMaw findings-state layer. They can be pushed to Jira, GitHub Issues, Slack or email with proof and remediation guidance attached.
After the fix, RedMaw re-tests the issue. The finding closes when the exploit no longer works.
Typical questions
What RedMaw tests
Each area below is exercised by attempting exploitation within authorized scope, and the result is recorded as evidence.
Evidence
A useful application-security finding answers more than “where is the weakness?”. RedMaw evidence is designed to show:
Boundaries
Adversarial testing is only credible when its limits are explicit.
One platform
The same engine, evidence model and findings state run across all four surfaces.
Technical reference
A severity score describes a weakness in isolation. An adversary is interested in the third hop, not the first.
Authentication proves who is calling. BOLA is what happens when nothing checks what they are allowed to touch.
The interesting part is not that the application made an unexpected request. It is where that request could reach.
The defect is not the format. It is that the server trusts attacker-controlled object state.
The token verified. That is not the same as the token being trustworthy.
The endpoint worked as written. It was written to trust too much.
A flexible query language is a flexible attack surface when authorization sits in the wrong layer.
Reading a file is minor. Reading the configuration that holds the credentials is not.
The database was the entry point, not the destination.
No vulnerability class fits. The application did exactly what it was told to do.
Both requests were authorized. That was the problem.
The domain still belongs to you. What answers on it may not.
Nobody offboards a service account.
Authentication already happened. The token is the proof, and proof can be copied.
A weakness does not start working on the day it gets an identifier. It was already working. The identifier is just when defenders found out.
Done means the task changed state. Fixed means the security condition changed state.
The fastest questionnaire is the one your security evidence was already prepared to answer.
The farther closure moves from adversarial retesting, the more assumption remains in the remediation state.
The board does not need the scanner console. It needs a defensible view of exposure, remediation and whether the testing program is working.
A finding matters differently when it exposes a credential, crosses a trust boundary or creates access to sensitive data.
Frequency tells you how often a tool runs. Continuity tells you whether security state survives between runs.
Security teams often have abundant detection data and much less evidence about what an attacker can actually use.
Organizations assign security ownership by technology. Attackers organize around reachable trust.
DORA changes the testing conversation from isolated evidence toward an operating resilience process that can be demonstrated.
Keep going
Continuously test what an attacker can actually reach across your applications, SaaS identities, internal infrastructure and AI systems.