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See how Novee helps it fix your vulnerabilitiesLarge language models like Claude, GPT, and Gemini can find vulnerabilities quickly, but they weren’t designed to operate a full offensive security workflow. Novee combines frontier AI models with models purpose-trained for offensive security to deliver a complete AI pentesting system.
Frontier models like Claude Mythos can find and exploit software vulnerabilities, but not independently. A general-purpose LLM can find vulnerabilities, but it can’t reliably prove what’s real vs. noise, assign severity based on your business context, scale continuously with predictable cost, or operationalize remediation and retesting.
Can’t reliably prove what’s real
Model selection becomes your responsibility
No path from finding to remediation and retesting
Severity lacks business context
Unpredictable cost at continuous scale
No persistent application context
Instead of relying on a single model, Novee uses an Omni-Model Offensive System: it continuously benchmarks and routes each task to the best-performing model, so you’re always using the right capability without having to track or manage it yourself.
Proven exploitability, not assumptions
The right model, automatically
Closes the loop from finding to verified remediation
Severity based on real business impact
Predictable cost at continuous scale
Persistent context that improves every test
| Capability | Novee AI Pentesting | General–Purpose LLMs (e.g. Claude Mythos) |
|---|---|---|
| Approach | Multi-agent omni-model system built on a persistent application intelligence model. Each stage – mapping, planning, exploitation, validation, remediation – runs on a specialized agent using the best model for that task, including Novee’s own proprietary model trained for offensive security. |
A single general-purpose model reasoning fresh every session, optimized for broad language and code-analysis tasks rather than adversarial system interaction. |
| Where it Excels | Custom applications, business logic flaws, authorization bypasses, chained API weaknesses, multi–step exploit paths in production environments. |
Deep source-code analysis of widely-used open-source projects (Linux kernels, browser engines, crypto libraries). |
| Model Selection | Continuously benchmarks and routes each task to the best-performing model, so you always use the right capability without managing model selection. |
Model choice is manual and static. The same model handles every stage, even as better models emerge. |
| Validation | Independent multi-agent validation with deterministic checks ensures every finding is a proven, reproducible exploit with clear evidence. Every surfaced finding ships with a working exploit, replication steps, and a PoC script. |
The same model generates and evaluates findings. Results are based on inference, requiring manual triage to confirm what’s real. |
| Application Context | Persistent application intelligence captures roles, workflows, APIs, and business logic, improving depth and coverage with every test cycle. |
No persistent memory across runs. Each session starts blind, with no accumulated understanding of your application. |
| Prioritization and Severity | Prioritizes findings based on real business impact, using application context to assess exploitability, access paths, and blast radius. |
Assigns generic severity based on vulnerability type, without understanding business context or real-world impact. |
| Tailored Remediation and Re-testing | Remediation guidance tailored to your WAF, backend, and codebase. Automatic retesting confirms the fix held and catches anything new. |
Discovery only. Disclosure, communication, and verification happen elsewhere – fewer than 1% of vulnerabilities found by frontier models in published research have been patched. |
| Operating Mode + Workflow | Continuous, change-triggered testing on running systems with built-in production safeguards. |
Episodic research runs, optimized for static codebases rather than live environments with layered defenses. |
| Pricing for Continuous Operation | Per-asset pricing designed for continuous testing, with predictable cost regardless of testing depth or frequency. |
Usage-based pricing with unpredictable cost, making continuous testing difficult to plan or scale. |