Yawning Titan — agentic threat model
Yawning Titan is a local, reinforcement-learning-based simulation framework with high autonomy and opacity within its simulated environments, presenting low real-world operational risk but potential local code execution risks if untrusted simulation configurations are executed.
OWASP AIVSS score rationale
| Autonomy of Action | 0.80 | |
| Goal-Driven Planning | 0.80 | |
| Self-Modification | 0.20 | |
| Dynamic Tool Use | 0.40 | |
| Persistent Memory | 0.50 | |
| Contextual Awareness | 0.70 | |
| Dynamic Identity | 0.10 | |
| Multi-Agent Interactions | 0.80 | |
| Non-Determinism | 0.70 | |
| Opacity & Reflexivity | 0.80 |
Scored with the canonical OWASP AIVSS formula (AIVSS calculator reference); agentic risk factors estimated from the agent’s described capabilities.
MAESTRO 7-layer threat model
Per-layer threats for this agent. Layers tagged “not certain from listing” are general, caveated commentary where the public description didn’t pin that layer.
Not certain from the listing — Yawning Titan is primarily a reinforcement learning (RL) framework using OpenAI Gym, rather than a traditional LLM-based agent, meaning standard LLM threats like prompt injection or model reprogramming do not directly apply unless LLMs are integrated as agents.
Not certain from the listing — The framework relies on simulated network topologies and game states rather than traditional vector databases or RAG pipelines, making data poisoning threats specific to the simulation configuration files.
The orchestration relies on OpenAI Gym action and observation spaces. Threats include insecure environment configurations, action space exploitation, or malicious RL policy injection that could manipulate simulation outcomes.
As an open-source Python framework, it runs locally or in research environments. The primary infrastructure threat is arbitrary code execution if a user loads untrusted, malicious simulation configurations or network topologies.
Designed specifically for evaluation and training, the framework is susceptible to reward hacking or gaming by the autonomous defensive agents, where agents find unintended shortcuts in the simulation rules.
Developed by Dstl, the project has academic and defense research rigor, but as an open-source tool, it lacks built-in enterprise access controls, authentication, or compliance frameworks out of the box.
The core design simulates multi-agent interactions (Blue defensive agents vs. Red adversarial agents). Threats include cascading failures in simulation logic or unexpected emergent behaviors when agents interact under extreme probabilistic scenarios.
MAESTRO — the 7-layer agentic threat-modeling framework (Cloud Security Alliance / Ken Huang).
These scores are auto-generated from public information (the agent's own listing, docs, and repository) using the canonical OWASP AIVSS formula and the MAESTRO framework — an estimate for guidance, not a penetration test, audit, or certification. See the scoring methodology. Are you the vendor? Factual corrections are free.