Jailbreaking › Jailbreak Success Rates Across Techniques
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Empirical research has measured the effectiveness of different jailbreak categories across different models and time periods. Understanding these patterns helps prioritize defense efforts.
# Attack success rate data (approximate, based on published research)
# Rows: attack types; Columns: model generations
# Sources: Wei et al. (2023), Zou et al. (2023), Chao et al. (2023)
attack_types = [
"Direct Request",
"Roleplay Framing",
"Token Encoding",
"Crescendo",
"Competing Objectives",
"GCG Suffix",
"PAIR (Automated)",
]
# Attack success rates (%) across three model generations
# Early (GPT-3.5 era), Mid (GPT-4 era), Recent (GPT-4o era)
# These represent average ASR on harmful behavior benchmarks
early_asr = [12.0, 68.0, 52.0, 55.0, 48.0, 85.0, 72.0]
mid_asr = [5.0, 38.0, 28.0, 32.0, 25.0, 67.0, 54.0]
recent_asr = [3.0, 18.0, 12.0, 20.0, 14.0, 45.0, 35.0]
Three patterns stand out in the data. First, all attack categories have become less effective over time as safety research has improved. Second, gradient-based and automated attacks maintain higher success rates than manual techniques, because they can systematically explore the input space rather than relying on human creativity. Third, even against the most recent models, success rates above zero persist for most attack types, confirming that no current defense achieves full robustness.
The persistence of gradient-based attacks even against heavily hardened models is particularly telling. GCG and its variants can find adversarial inputs that evade safety training because the safety training objective and the adversarial optimization objective are operating at different scales: safety training covers a finite distribution of training examples, while gradient-based attacks can probe the continuous space between those examples.