Challenge: Existing studies have shown that attention heads have a temporal induction property that allows them to learn and reproduce sequences of tokens.
Approach: They analyze attention heads and transformer outputs to examine in-context temporal biases . they find that transformer output has a tendency toward in-constext serial recall .
Outcome: The findings shed light on similarities and differences between LLMs and human memory and learning.

Similar Papers

Beyond Semantics: How Temporal Biases Shapes Retrieval in Transformer and State-Space Models (2026.eacl-long)

Copied to clipboard

Challenge: In-context learning depends on what appears in the prompt and on when it appears.
Approach: They construct prompts with repeated anchor tokens and average their predictions over hundreds of random permutations of the intervening context.
Outcome: The proposed model predicts the same tokens over hundreds of permutations over time.
Beyond Position: the emergence of wavelet-like properties in Transformers (2025.acl-long)

Copied to clipboard

Challenge: Despite its widespread adoption, theoretical limitations in positional encodings are resolved by developing emergent, wavelet-like processing strategies.
Approach: They propose to use Rotary Position Embeddings to develop emergent, wavelet-like properties that compensate for the positional encoding’s theoretical limitations.
Outcome: The attention heads evolve to implement multi-resolution processing analogous to wavelet transforms.
On the Distribution, Sparsity, and Inference-time Quantization of Attention Values in Transformers (2021.findings-acl)

Copied to clipboard

Challenge: Recent work shows that attention can be pruned to zeros with minimal loss in accuracy.
Approach: They propose a pruning technique which quantizes attention to a 3-bit format without retraining . they find that 80% of attention values can be pruned to zeros with minimal loss in accuracy .
Outcome: The proposed approach produces only a few unique attention values with minimal loss in accuracy.
What Context Features Can Transformer Language Models Use? (2021.acl-long)

Copied to clipboard

Challenge: Recent studies show that transformer-based language models benefit from conditioning on contexts of hundreds to thousands of previous tokens.
Approach: They propose to use lexical and structural information to ablate usable information in transformer language models.
Outcome: The proposed model improves when conditioning on contexts of thousands of previous tokens.
Telling BERT’s Full Story: from Local Attention to Global Aggregation (2021.eacl-main)

Copied to clipboard

Challenge: Recent work discouraging the use of attention distributions for explaining a model’s behaviour suggests that attention distribution can provide insights into local behaviour of attention heads.
Approach: They propose a distinction between local patterns revealed by attention and global patterns that refer back to the input and analyze BERT from both angles.
Outcome: The proposed model can explain local behaviour of attention heads by comparing local and global patterns from both angles.
Linear Recency Bias During Training Improves Transformers’ Fit to Reading Times (2025.coling-main)

Copied to clipboard

Challenge: Recent research has shown a strong fit between surprisal values from Transformers and reading times.
Approach: They evaluate a Transformer model that uses a recency bias added to attention scores to improve the fit to human reading times.
Outcome: The proposed model improves on a Transformer that includes a recency bias added to attention scores.
Identifying Semantic Induction Heads to Understand In-Context Learning (2024.findings-acl)

Copied to clipboard

Challenge: Large language models (LLMs) have demonstrated remarkable performance, but lack of transparency in their inference logic raises concerns about their trustworthiness.
Approach: They conduct a detailed analysis of the operations of attention heads to understand their in-context learning of LLMs.
Outcome: The proposed analysis of attention heads reveals that they increase the output logits of object tokens and recall objects . the proposed model is a novel approach to understand the in-context learning of large language models.
How to Dissect a Muppet: The Structure of Transformer Embedding Spaces (2022.tacl-1)

Copied to clipboard

Challenge: Pretrained embeddings based on the Transformer architecture have taken the NLP community by storm . a novel decomposition of Transformer output embeddables is demonstrated .
Approach: They propose to decompose Transformer output embeddings into a sum of vector factors . they show multi-head attentions and feed-forwards are not equally useful in downstream applications .
Outcome: The proposed method outperforms recurrent architectures on a wide variety of tasks.
Characterizing the Expressivity of Local Attention in Transformers (2026.acl-long)

Copied to clipboard

Challenge: Existing studies show that global and local attention are expressively complementary.
Approach: They propose to restrict global attention to a fixed-size window of preceding tokens . they also propose to add local attention to local-only transformers to increase model quality .
Outcome: The proposed model outperforms the global–local transformers on formal language recognition and natural language modeling.
Do All Autoregressive Transformers Remember Facts the Same Way? A Cross-Architecture Analysis of Recall Mechanisms (2025.emnlp-main)

Copied to clipboard

Challenge: Prior work has identified MLP modules in early layers as key contributors to factual recall.
Approach: They conduct a comprehensive evaluation of factual recall across several models . they find that Qwen-based models behave differently from previous patterns .
Outcome: The results show that attention modules in the earliest layers contribute more to factual recall than MLP modules.

What is GenGO?

GenGO is an NLP powered publication search system. It currenctly indexes 30k+ papers from ACL Anthology, and implements multi-aspect summarization, semantic search, and more!

Information

About
Limitations