Challenge: Spectral-normalized identity priors (SNIP) is a structured pruning approach for a Transformer model.
Approach: They propose a structured pruning approach which penalizes an entire residual module toward an identity mapping.
Outcome: The proposed method improves on 5 GLUE benchmark tasks while maintaining comparable performance.

Similar Papers

Differentiable Subset Pruning of Transformer Heads (2021.tacl-1)

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Challenge: Recent work shows that a large proportion of the heads in a Transformer’s multi-head attention mechanism can be safely pruned away without significantly harming the performance of the model.
Approach: They propose a method that prunes a Transformer's multi-head attention mechanism away without significantly harming its performance.
Outcome: The proposed method improves on natural language inference and machine translation tasks while offering precise control of sparsity level.
Structured Pruning for Efficient Generative Pre-trained Language Models (2023.findings-acl)

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Challenge: Large-scale generative Pre-trained Language Models (PLMs) are limited in their deployment in real-world applications.
Approach: They propose to prune the feed-forward networks of generative pre-trained language models to smaller widths without designing extra operators.
Outcome: The proposed method achieves 1.51x/6.96x inference speedup on GPU/CPU with 67% size reduction.
Your Transformer is Secretly Linear (2024.acl-long)

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Challenge: a novel linear characteristic exclusive to transformer decoders is revealed: embedding transformations between sequential layers exhibit almost perfect linearity.
Approach: They propose a cosine-similarity-based regularization to reduce layer linearity in transformer decoders.
Outcome: The proposed method improves performance metrics on Tiny Stories and SuperGLUE but also decreases the linearity of the models.
On the Distribution, Sparsity, and Inference-time Quantization of Attention Values in Transformers (2021.findings-acl)

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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.
Rethinking Network Pruning – under the Pre-train and Fine-tune Paradigm (2021.naacl-main)

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Challenge: Existing pruning results on benchmark transformers, such as BERT, are not as remarkable as those of convolutional neural networks.
Approach: They propose to apply a knowledge-aware pruning process to transformer-based pre-trained language models to reduce model size and model weight.
Outcome: The proposed pruning method outperforms the leading competitors with a 20-times weight/FLOPs compression and neglectable loss in prediction accuracy.
Focus on the Core: Efficient Attention via Pruned Token Compression for Document Classification (2023.findings-emnlp)

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Challenge: Pre-trained transformers suffer from a computationally expensive self-attention mechanism that interacts with all tokens, including those unfavorable to classification performance.
Approach: They propose to integrate token pruning and token combining strategies to improve model performance and reduce computational demands.
Outcome: Experiments with various datasets show that the proposed model performs better than baseline models, with the best improvement over the existing model.
Two-Stage Regularization-Based Structured Pruning for LLMs (2026.acl-long)

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Challenge: Structural pruning is a promising solution for large language models . prior structured pruning methods remove unimportant parameters based on certain metrics .
Approach: They propose a structural pruning method that iteratively learns the weights of transformer layers by adding their l1-norm to the loss function.
Outcome: The proposed pruning method outperforms strong layer-wise pruning methods without requiring retraining.
Pruning before Fine-tuning: A Retraining-free Compression Framework for Pre-trained Language Models (2024.lrec-main)

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Challenge: Structured pruning is an effective technique for compressing pre-trained language models (PLMs), but it requires retraining, leading to additional computational overhead.
Approach: They propose a task-specific pruning framework that prunes redundant modules of pre-trained language models before fine-tuning them.
Outcome: The proposed pruning framework achieves higher performance on GLUE, SQUAD, WikiText-2, Wik-103, and PTB datasets while reducing the time required for fine-tuning.
SP3: Enhancing Structured Pruning via PCA Projection (2024.findings-acl)

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Challenge: Structured pruning is a widely used technique for reducing the size of pre-trained language models, but current methods overlook the potential of compressing the hidden dimension d in PLMs.
Approach: They propose a structured pruning approach that projectes features into a space defined by principal components before masking the hidden dimension d in pre-trained language models.
Outcome: Experiments on benchmarks show that SP3 can reduce d by 70%, compress 94% of the BERTbase model, and maintain over 96% accuracy.
Block Pruning For Faster Transformers (2021.emnlp-main)

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Challenge: Pruning methods have proven to be effective at reducing model size, while distillation methods are proven for speeding up inference.
Approach: They propose a block pruning approach that integrates structured pruning methods with the movement pruning paradigm for fine-tuning.
Outcome: The proposed model is 2.4x faster, 74% smaller and faster than distilled models on classification and generation tasks.

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