aiqbench analysis
This research introduces SGASA, a method enabling reasoning models to autonomously synthesize and internalize safety guidelines from minimal examples rather than relying on static external policies. By allowing the model to refine its own rules based on adversarial errors, this approach significantly boosts resistance against jailbreak attempts while demonstrating distinct scaling behaviors across different model sizes. The findings suggest that self-generated intermediate representations offer a robust pathway for low-resource safety adaptation in evolving AI systems.
Self-Guided Adaptive Safety Alignment: Synthesizing and Internalizing Guidelines in Reasoning Models
arXiv:2511.21214v4 Announce Type: replace Abstract: Explicit safety policies can improve reasoning-model safety, but their effective coverage may lag behind evolving jailbreak strategies. We study whether a reasoning model can synthesize and internalize a task-specific safety guideline from a small set of harmful and benign examples. We introduce Self-Guided Adaptive Safety Alignment (SGASA). The model generates a guideline, refines it on its own errors, and selects a version by self-evaluation, which can then be applied in context or distilled into the model for guideline-free inference. Across two adversarial prompt datasets and three Qwen3 scales, in-context guidelines improve a combined safety and non-over-refusal score by 20.0-45.5 points on the 8B and 14B models. Self-evaluation selects the externally best refinement round in five of six settings, while guideline generation and utilization show distinct scaling patterns. Using alignment supervision derived only from WildJailbreak, internalized models retain 13.3-14.1 point gains on WildJailbreak without an inference-time guideline. These results support self-generated guidelines as a useful intermediate representation for low-resource safety adaptation.
Abstract:Explicit safety policies can improve reasoning-model safety, but their effective coverage may lag behind evolving jailbreak strategies. We study whether a reasoning model can synthesize and internalize a task-specific safety guideline from a small set of harmful and benign examples. We introduce Self-Guided Adaptive Safety Alignment (SGASA). The model generates a guideline, refines it on its own errors, and selects a version by self-evaluation, which can then be applied in context or distilled into the model for guideline-free inference. Across two adversarial prompt datasets and three Qwen3 scales, in-context guidelines improve a combined safety and non-over-refusal score by 20.0-45.5 points on the 8B and 14B models. Self-evaluation selects the externally best refinement round in five of six settings, while guideline generation and utilization show distinct scaling patterns. Using alignment supervision derived only from WildJailbreak, internalized models retain 13.3-14.1 point gains on WildJailbreak without an inference-time guideline. These results support self-generated guidelines as a useful intermediate representation for low-resource safety adaptation.
Computation and Language (cs.CL); Artificial Intelligence (cs.AI)
arXiv:2511.21214 [cs.CL]
(or arXiv:2511.21214v4 [cs.CL] for this version)
https://doi.org/10.48550/arXiv.2511.21214 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 256 words
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