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Towards eliciting latent knowledge from LLMs with mechanistic interpretability
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As language models become more powerful and sophisticated, it is crucial that they remain trustworthy and reliable. There is concerning preliminary evidence that models may attempt to deceive or keep secrets from their operators. To explore the ability of current techniques to elicit such hidden knowledge, we train a Taboo model: a language model that describes a specific secret word without explicitly stating it. Importantly, the secret word is not presented to the model in its training data or prompt. We then investigate methods to uncover this secret. First, we evaluate non-interpretability (black-box) approaches. Subsequently, we develop largely automated strategies based on mechanistic interpretability techniques, including logit lens and sparse autoencoders. Evaluation shows that both approaches are effective in eliciting the secret word in our proof-of-concept setting. Our findings highlight the promise of these approaches for eliciting hidden knowledge and suggest several promising avenues for future work, including testing and refining these methods on more complex model organisms. This work aims to be a step towards addressing the crucial problem of eliciting secret knowledge from language models, thereby contributing to their safe and reliable deployment.
Forward citations
Cited by 3 Pith papers
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When Activation Oracles Learn Not to Read: Concept-Specific Blind Spots in Fine-Tuned Oracles
Activation Oracles trained on Taboo subjects selectively fail to verbalize the concept present during their own training, even when that concept remains linearly decodable inside the oracle.
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MUX trains language models to reason with continuous latent tokens that encode spans of discrete reasoning as lossless weighted superpositions, improving accuracy and efficiency over latent-reasoning baselines.
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Mechanistic Interpretability of Cognitive Complexity in LLMs via Linear Probing using Bloom's Taxonomy
Linear probes on LLM residual streams classify Bloom's Taxonomy levels with high accuracy, but the result may reflect prompt lexico-semantic cues rather than a general cognitive-complexity representation.
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