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Early-stage startups and non-profits now get FREE access to Keygraph's commercial pentesting platform.

Continuous
Agentic Pentesting

With Self-hosted and BYOK Deployments Available

Keygraph console · live demo

Your team ships code daily, but your pentest only happens once a year. The Keygraph platform closes the 364-day gap: automated penetration testing on every build, and no finding reported without a working exploit.

AppSec and pentesting, on one platform

The scanner, the AI pentester and the yearly engagement, brought into one place and run at whatever depth you choose.

SCA · SECRETSSAST · WHITEBOXPENTESTONE REPORT

One run, every layer

The running app, its source, its dependencies and its secrets, tested together in one run, not scattered across separate tools.

Proven, then reported

Every finding carries a working exploit, in one report built to be accepted by auditors.

Scattered tools, one platform

The usual stack is a scanner in the pipeline, an AI pentester beside it and an engagement once a year, each with its own console and its own report. Keygraph brings all three into one place.

Fast enough for the pipeline

Agentic pentesting now runs at the speed and cost of the pipeline, so the pentest no longer waits for the annual engagement.

The same run, at any depth

The AppSec suite and the pentest are one run, on every pull request or for the full engagement, and every depth ends in the same proven report.

Full in depth pentesting, augmented by a full AppSec Suite

(No Exploit, No Report.)

Whitebox pentesting

The engine is an enhanced build of Shannon, our open-source AI pentester: agents read your source, plan attacks against it, and resolve each hypothesis by attempting a working exploit. Pre-Recon reads the repository, Recon confirms it against the live app, then five domain specialists analyze and exploit in parallel, with a sixth exploit agent for findings outside those classes.

In-scope findings from the static scans are mapped CWE to OWASP, queued as exploitation targets, and linked back to the original finding once proven.

Whitebox Pentester →

Blackbox pentesting

Point the Keygraph platform at a URL and let it attack, with no source code access, ever. WhatWeb fingerprints the stack, Playwright-driven automation enumerates endpoints, and mitmproxy captures the traffic, from which an OpenAPI specification can be generated.

A strategy agent then selects a hypothesis and dispatches exploit agents to test it in a real browser. Testing stops when confidence plateaus, not when a counter runs out.

Blackbox Pentester →

Agentic SAST

Your codebase compiles into a Code Property Graph: AST, control flow and data flow in one structure. The analyzer traces backward from every sink, and at each node an LLM evaluates whether the specific sanitization actually addresses the specific risk in that context.

An agent then checks each candidate path for control-flow and logic feasibility, so what advances is a traced source-to-sink path rather than a line number.

Agentic SAST →

Secrets protection

Pattern matching sweeps the working tree and commit history: configs, environment files, scripts, CI/CD pipelines, application source. Every candidate is then re-read by an LLM against the surrounding code, separating live credentials from placeholders, fixtures and documentation examples.

Entropy analysis catches base64 and hex payloads matching no known signature, and each confirmed secret is classified by blast radius.

Secrets Scanning →

Supply chain security

Legacy SCA matches lockfile versions against advisories and reports what is present. Here a research agent extracts the exact vulnerable function from each advisory, the Code Property Graph is queried for a real call site, and a forward walk from application entry points confirms the code can execute.

Severity is rewritten from that evidence: not reachable drops to Low, and reachable CVEs become exploit targets for the pentest.

SCA with reachability →

Fix and re-test

Confirmed findings arrive with reproduction steps and a proposed fix as a labeled pull request. You review, you merge. Nothing is auto-applied to your code.

After the patch the same exploit runs again. A finding closes when the attack that proved it stops working, and the record of both runs stays with the finding.

Code Remediation →

Structured results

  • Traced source to sink path
  • Working proof of concept
  • Reproduction steps
  • Proposed fix as a pull request
  • Re-test verdict on the same exploit

A finding ships only when an exploit proved it.

Run one module, or the full run

Every module is a product you can run on its own. Use one at a time where speed and cost matter most, and the full run where depth does.

PR #1482Secrets · light modelRunningPR #1481SAST · light model1 provenPR #1480Blackbox · stagingPassedPR #1479SCA · light modelPassedPR #1478Whitebox · light modelPassed

One module on every pull request

Blackbox, whitebox, SAST, SCA and secrets each run as a scan type of their own. Point a lighter, cheaper model at one of them and it is fast enough for every pull request, which is where most of the value is at scale.

Launching agents against staging.your-app.com…5 agents launchedrecon-agentmapping routes • 214 foundsast-agenttracing sinks • 61 candidatessca-agentreachability • 12 reachablesecrets-agenthistory scan • 3 liveexploit-agentsone reconciled queue • 9 provenReport assembling…

The full run, for a complete pentest

The modules are built to feed each other. Static analysis and the whitebox engine surface different candidates, one queue merges them, and the exploitation agents work that whole queue against the running application. That combination is what makes the full run a different kind of pentest, rather than a scanner with an exploit step bolted on.

Whichever you run, the same closure comes with it: findings deduplicated so you triage once, remediation as a reviewable pull request, Jira sync, and a pentest report built to be accepted by auditors.

What a full run does, in order

A Keygraph run reads the code before it touches the app, holds the static findings back, then proves them. Static candidates and live reconnaissance meet in one exploitation queue, and only what an exploit confirms is filed as a pentest finding.

ONE MODULE ON ITS OWNsastFindings from one moduleTHE FULL RUNwhiteboxsastscasecretsReconcile, then exploitONE RECONCILED QUEUEProven findings
01

Read the code first

Phase 1 · Pre-Recon

A code analyst maps the repository end to end: entry points, auth flows, database access and security sinks. Static reasoning only, with no browser involved yet, so the run knows the shape of the application before it sends a request.

02

Hold the static findings

SAST, SCA, Secrets

The static stream produces candidates, not verdicts. A static finding becomes a pentest finding only after the whitebox pentest proves it against the running app, and anything never exploited is reported in its own lane instead.

03

Confirm against the live app

Phase 2 · Recon

A recon specialist crawls the running application to confirm endpoints, forms and auth boundaries. What the code implied is checked against what the deployment actually exposes, before any exploitation is attempted.

04

Five analysts, in parallel

Phase 3 · Vulnerability analysis

Injection, XSS, Auth, SSRF and Authz each get their own specialist, and the five work in parallel. Each one reads the source for its own domain and produces its own candidates, rather than waiting on a single shared pass.

05

One exploitation queue

Phase 4 · Exploitation

Those candidates, together with any from agentic code analysis, are merged and deduplicated into a queue per domain. In-scope static findings cross over, mapped from CWE to OWASP, and each analyst hands off to a paired exploiter.

See the five-phase run →
06

Report, patch, re-test

Phase 5 · Reporting

A reporting agent synthesizes validated exploits with reproduction steps and severity, and drops the speculative ones. Remediation starts when you click a finding: the fix arrives as a reviewable pull request, then the original exploit is replayed to decide whether it closes.

Static analysis finds the candidates. The pentest is what proves them.

You choose the models. Always your key.

Inference runs under your own provider account, so the key and the model bill are both yours. Run the open-source engine and Keygraph never receives your source and never proxies your model traffic.

Hosted providers

Models you serve yourself

Bring your own key. Model access is always your own key and your own provider account, on the Keygraph platform and in Shannon. Because inference runs under your account, the provider's retention terms are yours to set.

One source of truth for every finding.

Reporting & Analytics

The Keygraph platform deduplicates SAST, SCA, Secrets, and Whitebox results into a single canonical entry per vulnerability per repository, surfaced on a live security dashboard and synced bidirectionally with Jira. Each entry retains its evidence and status: identified, validated, recorded.

Explore Reporting & Analytics →
SASTSCASecretsWhiteboxOne canonical findingIDENTIFIED · VALIDATED · RECORDEDJiraTWO-WAY SYNC

Canonical findings

Content-hash plus LLM semantic matching. One entry per vulnerability per repo, persistent across refactors.

Security dashboard

Live KPIs alongside risk, velocity, SLA, and MTTR trend charts. Drill down by repo, team, or severity.

Jira sync

One-click ticket creation, 15-minute status refresh, hourly drift sweep on linked pairs.

From finding to verified patch.

Code Remediation

Click a confirmed finding in the Keygraph platform. An agent reads the evidence, writes the fix, and re-runs the original scanner to prove the vulnerability is gone. The verified patch lands as a reviewable pull request in your existing workflow: your team chooses and tracks the risk response, and nothing is auto-applied.

Explore Code Remediation →
FindingPROVEN BY EXPLOITPatchWRITTEN BY AN AGENTRe-runNOT REPRODUCEDPull requestAWAITING YOUR REVIEWNEVER AUTO-APPLIED

Verified before delivery

Same scanner re-runs against the patched code. No patch is delivered unless the original vulnerability is gone.

Review gate stays yours

Patches attributed to a clearly labeled Keygraph bot, landing in your existing GitHub, GitLab, or Azure DevOps workflow. Never auto-applied.

User-initiated only

Patching runs only when someone clicks a finding. It never starts on its own, and it never reverts anything.

When an auditor needs a signature

Every run already produces a pentest report built to be accepted by auditors, with finding tables that carry each fix through to its verification. When an audit wants a human signature on top, the attestation layers onto that pentest, signed by a security team that works separately from the engineers who build the platform.

What is in the report

One signed document

  • +The systems under test and the testing window
  • +The documented methodology the engagement followed
  • +Every vulnerability with its severity ranking
  • +The executed proof-of-concept exploit behind each one
  • +What was fixed, and how each fix was independently verified
  • +The status of anything left open

Findings you choose not to fix appear in the report with their status, so nothing is hidden from your auditor.

How the attestation runs

Typically one week, kickoff to sign-off

Run your pentest on the Keygraph platform ↓ Fix what you choose, as reviewable pull requests ↓ The Keygraph security team reviews and re-tests each fix ↓ You get the signed third-party report

Priced as a flat one-time fee, with your remediation timeline left entirely to you. At the next audit cycle, re-attestation runs the same way against a fresh pentest.

Confirmed in writing

What one audit firm asked for

A SOC 2 audit firm confirmed to Keygraph in writing that an AI-generated pentest is acceptable evidence, on two conditions. The report identifies the vulnerabilities in the application under test, and every finding carries a severity ranking.

Attestation →

Provides pentest evidence for compliance regimes including:

PCI-DSS

FedRAMP

GLBA

Safeguards Rule

NYDFS

Part 500

DORA

TLPT

CMMC

Level 3

Your own audits

SOC 2 and ISO 27001

SOC 2 and ISO 27001 audits expect penetration test evidence, which is the gap the signed attestation fills. Alongside it, the findings history logs each vulnerability with timestamp and author as audit-ready evidence for pentest and vulnerability-scanning requirements.

Attestation →

Separate from your audit

Keygraph's own posture

This one is about Keygraph, not about you. Keygraph's own SOC 2 Type II report is available under NDA, and the Code Security Posture page sets out the controls the platform applies to your source code.

Code Security Posture →

Operated where your data lives.

Keygraph Enterprise

Deploys entirely inside your AWS, GCP, or Azure account. Source and scan results stay inside your security perimeter, and inference runs against the model endpoint you choose, including one inside your own account. No managed control plane. No externally operated data plane.

See the Enterprise platform →
YOUR CLOUD ACCOUNTPentest runnerSourceModel endpointFindingsNo control plane

Self-hosted

Run the entire platform inside your VPC. Fully air-gapped, with inference from a model endpoint inside your boundary.

SSO & SCIM

SAML 2.0 or OIDC for sign-in. SCIM for automated user provisioning and deprovisioning.

Deep integrations

GitHub, GitLab, Azure DevOps, and two-way Jira sync, plus CI gating in GitHub Actions and Azure DevOps Pipelines.

Cloud, self-hosted or air-gapped

Keygraph Cloud is held to the same standard as a self-hosted install, with regional isolation, and Keygraph's own SOC 2 Type II report is available under NDA. Self-hosted and air-gapped installs exist because many security teams have to keep everything inside their own boundary, and the whole platform runs that way, proof of concept included. Whichever you pick, the run happens in an ephemeral container on read-only scopes.

What you holdKeygraph CloudSelf-hostedAir-gapped
Operated byKeygraphYouYou
Runs onKeygraph's AWS, US or EU regionYour AWS, GCP or Azure accountYour network, isolated
Findings storeKeygraph tenant, encrypted at restYour Postgres, your keysYour Postgres, your keys
Model endpointYour key, your provider accountYour key, your provider accountAn endpoint inside your boundary
Your sourceEphemeral memory, discarded after the scanEphemeral memory, discarded after the scanEphemeral memory, discarded after the scan
What is keptOnly the finding record, with a redacted snippetOnly the finding record, in your databaseOnly the finding record, in your database
Model trainingNever on your code or findingsNever on your code or findingsNever on your code or findings
AccessRead-only; write only for a fix you openRead-only; write only for a fix you openRead-only; write only for a fix you open
Sign-inSAML 2.0 or OIDCYour IdP, SAML 2.0 or OIDCYour IdP, SAML 2.0 or OIDC
Updates and licensingManaged continuouslyApplied on your scheduleSigned artifacts, validated inside your network

Every deployment runs the same engine. What changes is who holds the keys, the data and the schedule.

The Shannon 3.0 benchmark

Three Shannon 3.0 runs, one per model, against the Photoview 2.4.0 deployment Doyensec tested, with admin credentials only. Every run is published with a downloadable report and a SARIF file.

$6.10

Cheapest run

Model tokens for the cheapest of the three runs.

3 of 3

Every run caught the critical

Runs that caught the critical pre-auth SQL injection at CVSS 9.8.

6 of 7

Later-patched vulnerabilities

Vulnerabilities Photoview patched after 2.4.0, caught by the Claude Opus 5 run.

SARIF 2.1.0

Machine-readable by default

Written by default in exploit mode, so findings land in GitHub code scanning or GitLab's vulnerability report.

Hands-on at every level

Keygraph came out of problems its own team kept running into, and it is built to be used before it is bought. Start with Shannon today. When you are ready for the platform, a proof of concept runs it on your own code with our engineers, cloud-hosted or self-hosted in your own account.

No signup, no account

Start with Shannon, today

Shannon is the whitebox pentesting engine inside the Keygraph platform, and it writes its reports the way the platform does. Run it against your own code with Docker, Node.js 18+ and your own model key. If you like what it finds, the platform adds SAST, SCA and secrets, one queue across all of them, remediation pull requests, and runs on every build.

Quickstart
# Configure credentials with the interactive wizard.
$ npx @keygraph/shannon@latest setup

# Run a pentest against a source-available target.
$ npx @keygraph/shannon@latest start -u https://your-app.com -r /path/to/your-repo
01
Shannon open source

The engine, run by you.

  • Run it locally or in CI
  • Any repository, public or private
  • The platform's whitebox engine and report format
  • You pay only your own model costs

$0 forever

$0forever
Shannon, open source
02
Community Program

The full Pro plan for early-stage startups and nonprofits.

  • Seed and pre-Series-A startups
  • U.S.-based 501(c)(3) nonprofits
  • 20 or fewer Active Developers
  • Free until you graduate from the program

$0 in cloud service fees

$0while you qualify
Check your eligibility
03
Pro

The full Keygraph platform, cloud-hosted and managed.

  • Every module included, no add-ons
  • Unlimited repositories and scans
  • Seats, not scans or tokens
  • SSO, RBAC, audit logs and Jira sync

Per Active Developer

$50per developer / month
Compare the plans
04
Enterprise

The full Keygraph platform, in your own environment.

  • Everything in Pro
  • Self-hosted or fully air-gapped
  • A dedicated engineer and white-glove onboarding
  • Custom SLA, security patch SLA and DPA

Annual contract

Custom
Schedule a technical demo

Seats, not usage

A seat is a person who changed a monitored repository and still has access. Bots, read-only users and anyone who has lost access are excluded, and scans, pentests, findings and tokens are never metered.

Every module, on every plan

The Community Program, Pro and Enterprise all include every module with no add-ons. A plan decides where the platform runs and how it is supported, never what it can test.

Explore Keygraph

Go deeper on the platform, see how Keygraph compares with the tools you already run, learn Shannon from its docs, or get to know the team behind it.

We don't report what might be vulnerable.
We prove what is.