Challenge: Recent transformer language models achieve outstanding results on many downstream tasks, but their enormous size often makes them impractical on memory-constrained devices.
Approach: They propose an offline compression approach that reduces the complexity of the model by enabling collaboration between modules.
Outcome: The proposed approach outperforms commonly used factorization-based offline compression methods on various NLP tasks.

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Compressing Large-Scale Transformer-Based Models: A Case Study on BERT (2021.tacl-1)

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Challenge: Popular pre-trained Transformers have improved performance for various NLP tasks by sizable margins, but are too resource-hungry and computation-intensive to suit low-capacity devices or applications with strict latency requirements.
Approach: They present a literature review of the compression of Transformers, focusing on the popular BERT model, which has attracted considerable research attention.
Outcome: The proposed models improve Sentiment analysis, paraphrase detection, machine reading comprehension, question answering, text summarization, and other tasks by sizable margins.
On the Way to Lossless Compression of Language Transformers: Exploring Cross-Domain Properties of Quantization (2024.lrec-main)

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Challenge: Modern Natural Language Processing models have a huge capacity, but this makes it difficult to employ.
Approach: They propose a method to quantize at least 95% of Transformer weights without access to task-specific data so the drop in performance does not exceed 0.02%.
Outcome: The proposed method quantizes 95% of Transformer weights and corresponding activations to INT8 without access to task-specific data so the drop in performance does not exceed 0.02%.
Adaptive Parameter Compression for Language Models (2025.findings-naacl)

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Challenge: Adaptive parameter compression is a new approach to improve NLP models . the current algorithm is based on a single parameter, but it is not scalable.
Approach: They propose a hardware-independent compression strategy that extends the weight-squeezing approach by introducing compression biases and weights.
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Extreme Model Compression for On-device Natural Language Understanding (2020.coling-industry)

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Challenge: Xu and Sarikaya et al., 2014) perform word-embedding compression with NLU task learning . their approach achieves a compression rate of 97.4% with less than 3.7% degradation in predictive performance.
Approach: They propose a task-aware, end-to-end compression approach that performs word-embedding compression with NLU task learning.
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EFTNAS: Searching for Efficient Language Models in First-Order Weight-Reordered Super-Networks (2024.lrec-main)

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Challenge: Depending on the size of transformer-based models, they can be restricted from deployment in resource-constrained environments.
Approach: They propose to combine neural architecture search and network pruning techniques to generate and train weight-sharing super-networks that contain efficient transformer-based models.
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Scale down Transformer by Grouping Features for a Lightweight Character-level Language Model (2020.coling-main)

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Challenge: Existing approaches to character-level language modeling have suffered from high learning complexity caused by inherently long character sequences.
Approach: They propose a method that efficiently reduces the computational cost and parameter size of Transformer by splitting feature space into multiple groups, factorizing the calculation paths, and reducing computations for the group interaction.
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Dodo: Dynamic Contextual Compression for Decoder-only LMs (2024.acl-long)

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Challenge: Existing approaches to NLP are sparsifying attention patterns or approximating the attention computation with kernel methods.
Approach: They propose a method for dynamic contextual compression for decoder-only LMs.
Outcome: The proposed method reduces the cost of self-attention to a fraction of typical time and space.
Self-Distilled Quantization: Achieving High Compression Rates in Transformer-Based Language Models (2023.acl-short)

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Challenge: Existing methods for quantization-aware training and quantization for learning have limitations in dealing with accumulative quantization errors.
Approach: They propose a method that minimizes accumulative quantization errors and outperforms baselines by distilling knowledge from a fine-tuned teacher network.
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Low-Rank Prune-And-Factorize for Language Model Compression (2024.lrec-main)

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Challenge: Existing methods to reduce parameter redundancy in pre-processed language models fail to retain satisfactory performance under moderate to high compression rates.
Approach: They propose to use network pruning to extract low-rank sparsity pattern desirable to matrix factorization.
Outcome: The proposed method has a superior compression-performance trade-off compared to existing methods.
Context Compression for Auto-regressive Transformers with Sentinel Tokens (2023.emnlp-main)

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Challenge: Existing Transformer-based LLMs have limited performance due to complexity of attention module . key-value cache is the major memory footprint and inference latency problem .
Approach: They propose a plug-and-play approach that incrementally compresses token activation into compact ones . they also profile the benefit of context compression on improving the system throughout .
Outcome: The proposed approach reduces memory footprint and inference latency by compressing tokens into compact ones.

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