Safeguard
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DeepHat AI Explained: The Open Security LLM and How to Use It Safely

What DeepHat AI is, where it came from, and how to fold an uncensored open-source security model into offensive and defensive work without creating new risk.

Safeguard Research Team
Research
6 min read

DeepHat AI is an open-source large language model built specifically for cybersecurity and DevOps work — offensive and defensive — and it's notable for being deliberately "uncensored," meaning it will discuss exploitation, tooling, and attack techniques that general-purpose assistants refuse. Formerly released under the name WhiteRabbitNeo, DeepHat is aimed at security practitioners who need a model that can reason about real attack and defense scenarios. This guide covers what it is, how it's built, where it genuinely helps, and the guardrails you need if you put it anywhere near production.

What is DeepHat AI, and where did it come from?

DeepHat is a security-focused LLM series that was renamed from WhiteRabbitNeo. Its stated purpose is to support both offensive security (penetration testing, exploit reasoning, CTF work) and defensive tasks (threat analysis, vulnerability assessment, incident response), along with DevOps tooling. The distinguishing design choice is that it doesn't apply the safety refusals general assistants use — it's positioned as an "uncensored" model for professionals who are doing legitimate security work and hit constant refusals from mainstream chatbots.

That framing is the whole pitch and the whole risk. For a red teamer, a model that won't lecture you about why it can't discuss a technique you're paid to test is genuinely useful. For an organization, an uncensored model is also a tool that will produce harmful output on request, which changes how you deploy and monitor it.

How is DeepHat built?

The widely available DeepHat-V1-7B is a 7.61-billion-parameter causal language model, built as a fine-tune of Qwen2.5-Coder-7B. It supports a large context window — up to 131,072 tokens, with the base configuration tuned around 32,768 and length-extrapolation available for longer inputs — which suits it to reading big log files, long code diffs, and multi-file repositories. Because the base is a code model, its strengths lean toward code generation and analysis, which lines up with security tasks like writing detection rules, analyzing a vulnerable function, or scripting a proof-of-concept.

The project has also promoted a larger V2 model (around 30 billion parameters), with the vendor claiming it outperforms several substantially larger models on CTF challenges, threat-intelligence tasks, and offensive scenarios. Treat those head-to-head claims as the vendor's own benchmark results rather than independent findings — as with any model, the useful evaluation is how it performs on your tasks, not on a leaderboard chosen by the people shipping it.

Where does DeepHat AI actually help?

The realistic, high-value uses cluster around tasks where a general model's refusals get in the way but the work is legitimate:

  • Detection and rule authoring. Turning a threat description into Sigma, YARA, or SIEM query logic, where the model needs to reason concretely about attacker behavior.
  • Vulnerability analysis. Reading a function or a diff and explaining how a flaw could be triggered, which helps a defender understand severity and reachability.
  • CTF and lab work. Reasoning through challenges in a controlled environment without hitting a wall of safety refusals.
  • Incident-response drafting. Summarizing logs, proposing containment steps, and drafting timelines from raw telemetry.

Because it's open-source and self-hostable, it also appeals to teams that can't send security-sensitive data — logs, source, findings — to a hosted API for residency or confidentiality reasons.

What are the risks of an uncensored security model?

An uncensored model is a dual-use tool, and treating it like a normal assistant is the mistake. Concrete concerns:

  • Harmful output on demand. The same lack of guardrails that helps a red teamer means the model will produce working attack tooling for anyone with access. Access control around the model matters as much as access control around any other offensive tool.
  • Insecure code suggestions. Like all code-capable LLMs, it can produce code with injection flaws, hardcoded secrets, or vulnerable dependencies. Anything it writes still has to go through the same scanning and review as human-written code — an LLM's output is not pre-vetted.
  • Hallucinated specifics. A model will confidently invent CVE numbers, version ranges, and API details. Never ship a security claim — "this is fixed in version X," "CVE-YYYY-NNNN applies here" — on a model's word without verifying against the authoritative source.
  • Prompt injection and data exfiltration. If you wire DeepHat into an agent that reads untrusted input (a webhook, a scraped page, a ticket), that input can carry instructions. Agentic security models need the same AI security guardrails as any other LLM application.

How do you use DeepHat AI safely in a real workflow?

The controls are the same ones any responsible LLM deployment needs, applied with extra rigor because the model has no built-in refusals:

  • Gate access. Restrict who can query the model and log every prompt and response, the way you'd log use of any offensive tooling.
  • Sandbox execution. If the model drives an agent that runs commands, isolate that agent — no production credentials, no network egress to anything it doesn't strictly need, and a full audit trail.
  • Scan everything it produces. Route generated code through SCA and SAST before it goes anywhere. An SCA tool such as Safeguard can flag when a dependency the model suggested carries a known advisory, catching the class of mistake LLMs make constantly.
  • Verify factual claims. Cross-check any CVE, version, or advisory reference against NVD or the vendor's own security page. The model's fluency is not evidence.
  • Keep a human accountable. A person, not the model, signs off on any action with real-world impact.

Used this way, DeepHat is a capable specialist tool for security teams. Used as an oracle you trust without verification, an uncensored model is a fast way to ship insecure code and false claims with confidence.

FAQ

Is DeepHat AI free to use?

DeepHat is released as an open-source model (the 7B variant is openly available and self-hostable), so you can run it on your own hardware without a per-token fee. Larger variants and hosted/agentic offerings may come with their own terms, so check the current license before commercial use.

What was DeepHat called before?

DeepHat was previously released under the name WhiteRabbitNeo. The rebrand kept the same focus: an open, uncensored model for offensive and defensive cybersecurity work.

Is it safe to use an uncensored security model at work?

It can be, with controls. Restrict and log access, sandbox any agentic execution, scan all generated code, and verify factual claims. The absence of built-in refusals means your organizational guardrails have to do the work the model won't.

Can DeepHat replace a vulnerability scanner?

No. It can help analyze and explain vulnerabilities, but it doesn't maintain an authoritative vulnerability database or reliably enumerate your dependencies. Use it alongside SCA, SAST, and DAST tools, not instead of them, and verify anything it claims about specific CVEs or versions.

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