Papers with Mechanistic interpretability

4 papers
Emergence of Minimal Circuits for Indirect Object Identification in Attention-Only Transformers (2026.acl-srw)

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Challenge: Large language models are difficult to reverse engineer because of their internal operations.
Approach: They train small attention-only transformers on a symbolic version of the Indirect Object Identification task.
Outcome: The proposed model with only two attention heads achieves perfect IOI accuracy despite lacking MLPs and normalization layers .
Mechanistic Analysis Of Universality: Numerical Comparison Circuits Across Transformer Architectures (2026.acl-srw)

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Challenge: Mechanistic interpretability seeks to identify internal circuits within transformer language models but it is unclear whether they generalize across model families and scales.
Approach: They propose to identify internal circuits within transformer language models by numerical comparisons.
Outcome: The proposed model implementations are consistent across architecture and scale, the authors show . their results highlight the need for cross model comparisons to claim generalization of internal circuits.
Route Sparse Autoencoder to Interpret Large Language Models (2025.emnlp-main)

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Challenge: Sparse autoencoders (SAEs) extract interpretable and monosemantic features in large language models . prior work focused on feature extraction from a single layer, failing to capture activations that span multiple layers.
Approach: They propose a framework that integrates a routing mechanism with a shared SAE to efficiently extract features from multiple layers.
Outcome: The proposed framework extracts features from multiple layers while incurring minimal parameter overhead while achieving high interpretability and flexibility.
A Simple Yet Effective Method for Non-Refusing Context Relevant Fine-grained Safety Steering in LLMs (2025.emnlp-main)

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Challenge: Existing methods for fine-tuning large language models to meet safety policies are costly and impractical.
Approach: They propose a method to fine-tune large language models to meet evolving safety policies by applying a gradient-free, unsupervised approach.
Outcome: The proposed method provides precise control, avoids blanket refusals, and directs models to generate safe, relevant content.

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