Agents, not pipelines
The model plans the engagement, picks the tool, writes the payload, and rewrites the plan from what it just learned. There is no fixed scan template to outgrow.
ScanSuite runs AI agents across your source code, web applications and infrastructure. Each one plans its own work, verifies every finding against the real system, and proves it with an exploit that actually runs — on-premise or in your private cloud.

Classic scanners produce lists that someone still has to triage. ScanSuite's agents produce conclusions — with the reasoning, the call path and the working proof attached.
The model plans the engagement, picks the tool, writes the payload, and rewrites the plan from what it just learned. There is no fixed scan template to outgrow.
Every finding is re-checked before it is reported: source-to-sink tracing for code, baseline-versus-payload comparison for web, and for infrastructure a proof of concept that has to run.
Nessus, OpenVAS, Acunetix, ZAP, Nuclei, Trivy and 30+ more stay in the platform — and are handed to the agent as callable tools it can reach for on its own.
Point it at a repository. The agent reads the code the way a reviewer would — then proves the path from untrusted input to dangerous sink before anything reaches your backlog.
Upload an archive or point ScanSuite at a repository. Scanning modes cover a single run, a daily, weekly or monthly schedule, a monitored branch that scans on change, an incremental scan of only what moved, or a custom path scope — so a re-scan costs what the change costs, not what the codebase costs.
A dependency scan reports every advisory that touches your lock files. Four gates, cheapest first, decide which of them is worth a person's afternoon.
Enabled per scan, on the same run, against the same checkout.
Detected keys and tokens are re-checked by the model, so example credentials and long-rotated test keys stop paging the team at 2am.
Generates a security-oriented tutorial of the codebase — abstractions, how they relate, chapter by chapter — readable directly in the web interface.
Monitor Changes and Incremental Scan re-analyse only what moved since the last run, which is what makes per-commit AI analysis affordable.
Findings are keyed on vulnerability class, file and parameter — deduplicated within the scan and against history, so the same issue never lands twice.
Give the agent a scope and one sentence of instruction. It plans the engagement, runs the tools, improvises when the plan stalls, and comes back with a proof of concept that ran.
No scan profile to tune, no attack tree to pre-build. Scope, credentials if you have them, and what you care about.
“Enumerate services, prioritize SMB and web, and verify exploitable findings with a PoC.”
Operator instructions field — everything else is the agent's decision
The agent returns a strict engagement plan: ordered steps, the rationale for each, the tools it needs, the targets it touches, the outcome it expects, and what depends on what.
Forty-four tools, from a full OSINT bundle down to a single crafted HTTP request.
Subdomain and OSINT enumeration, host discovery, technology fingerprinting, certificate-transparency origin discovery, DNS recon, Shodan lookups, and endpoint and secret extraction from JavaScript.
Nessus, OpenVAS and Acunetix are driven as tools — submitted, polled and parsed — with their findings returned into the agent's context rather than a separate report nobody opens.
Quick, balanced, API and deep web scans, each threaded with the engagement's authentication so post-login surface is actually tested, not just the marketing pages.
An allow-listed command runner — nmap with NSE, httpx, gobuster, naabu, nuclei and more — with arguments the model chooses, plus Nuclei templates written on the fly for a target-specific check.
Session-persistent login, parameter fuzzing with response diffing, request comparison for access-control and IDOR gaps, and credential-reuse pivoting across discovered services.
Look a product and version up in the exploitable-CVE database, fetch the referenced exploit, generate a Python proof of concept, run it in a sandbox — and record the finding only if it worked.
Boundaries enforced in code, not asked for in a prompt: scope-locked targets, no shell and allow-listed binaries only, exploit pages fetched solely from database-returned URLs, sandboxed PoC execution, and budgets on every engagement.
A black-box engine you can run on its own or hand to the pentest agent. The model picks the attack point, the technique and the concrete payload; the technique module shapes the request flow and scores the signal.
An internal crawler plus imported crawl records build the attack surface — visited URLs, forms, parameters — and deduplicate it into distinct attack points, so the same parameter is not tested eleven times under eleven URLs.
Everything the engines produce lands in one place — already deduplicated, already validated, already carrying the evidence a developer needs to fix it and the proof a sceptic needs to believe it.
Findings from AI Native SAST, dependency reachability, secrets, AI DAST, AI Pentest and every classic scanner are normalized into one vulnerability record, with the product, target, scanner and scan run attached.
Code-flow diagram, rationale, confidence, exploit references
Open a finding and the reasoning is there to be checked: the rendered code-flow diagram with its step explanation, the reachability rationale, the confidence statement, the risk score and the reported-exploitation references. An AI verdict you cannot audit is just a different kind of false positive.
Generate, edit, run, refactor — in the interface
The PoC is Python you can read, change and save. Run it against the target from the finding view and read the exit code and output, or ask the model to refactor it against the success condition. A finding that ships with an exploit that runs does not get argued about in triage.
Over 130,000 CVEs with real exploit evidence, queried locally
Every entry carries evidence rather than a severity label: CISA or VulnCheck KEV listing, a published exploit, PoC code, or an EPSS score in the top decile. It gates dependency findings, backs the pentest agent's exploit research, and is checked automatically during infrastructure scans — no external lookup, no data leaving the deployment.
Pipelines, DefectDojo, Jira
Run scans inside your pipelines and keep the results where your teams already work. Findings export to DefectDojo per scanner, and upload to Jira for remediation tracking, benchmarks and SLA reporting.
Subdomains, hosts, websites, emails and leaked credentials — map the external attack surface before somebody else does.
Team-specific rules for static, web and infrastructure scanning — including Nuclei templates generated from your own findings.
Run the whole platform inside your perimeter, in a private cloud, or fully offline. Your code and findings stay where you put them.
Bring your own LLM provider or run models locally. Token usage is recorded per scan so the cost of an engagement is never a surprise.
IDE plugins, data classification, and engineering checklists catch risks before code leaves the developer workflow.