Challenge: Language models can memorize detailed information and patterns, but raise privacy concerns . ANADP reduces the performance gap between regular and DP fine-tuning while maintaining the privacy constraints.
Approach: They propose an algorithm that allocates additive noise based on the importance of model parameters to reduce the performance gap between regular fine-tuning and traditional DP fine- tuning.
Outcome: The proposed algorithm narrows the performance gap between regular fine-tuning and traditional DP fine- tuning while maintaining privacy constraints.

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Just Fine-tune Twice: Selective Differential Privacy for Large Language Models (2022.emnlp-main)

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Challenge: Existing approaches to protect language models from privacy leakage suffer from limited user control and low utility . et al., 2018: a novel framework that achieves SDP for state-of-the-art large transformer-based models.
Approach: They propose a framework that applies differential privacy to large language models . they use redacted in-domain data to fine-tune the model with original in- domain data .
Outcome: The proposed framework achieves strong utility compared to baselines.
DP-FROST: Differentially Private Fine-tuning of Pre-trained Models with Freezing Model Parameters (2025.coling-main)

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Challenge: Training models with differential privacy has received a lot of attention since it provides theoretical guarantee of privacy preservation.
Approach: They propose methods that fine-tune large-scale pre-trained models with freezing unimportant parameters for downstream tasks while satisfying differential privacy.
Outcome: The proposed methods fine-tune large pre-trained models with freezing unimportant parameters while satisfying differential privacy while preserving their utility.
Thinking Outside of the Differential Privacy Box: A Case Study in Text Privatization with Language Model Prompting (2024.emnlp-main)

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Challenge: Recent studies have focused on the integration of Differential Privacy (DP) into NLP techniques.
Approach: They propose a method for text privatization leveraging language models to rewrite texts . they examine the usability of DP in NLP and its benefits over non-DP approaches .
Outcome: The proposed method is a novel method for text privatization leveraging language models to rewrite texts.
Selective Differential Privacy for Language Modeling (2022.naacl-main)

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Challenge: Existing methods to protect sensitive data from leaking are over-pessimistic and undifferentiated.
Approach: They propose a new privacy notion, selective differential privacy, to provide rigorous privacy guarantees on the sensitive portion of the data to improve model utility.
Outcome: The proposed privacy-preserving mechanism achieves better utility while remaining safe under various privacy attacks compared to baselines.
Privacy Regularization: Joint Privacy-Utility Optimization in LanguageModels (2021.naacl-main)

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Challenge: Neural language models have a high capacity for memorization of training samples . however, this can cause privacy degradation and disparate impact on subgroups of users .
Approach: They propose two privacy-preserving regularization methods for training language models that enable joint optimization of utility and privacy.
Outcome: The proposed methods have favorable utility-privacy trade-off, faster training and uniform treatment of under-represented subgroups.
Synthetic Text Generation with Differential Privacy: A Simple and Practical Recipe (2023.acl-long)

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Challenge: Privacy concerns have increased in data-driven products due to the tendency of machine learning models to memorize sensitive training data.
Approach: They propose a method for generating useful synthetic text with a formal privacy guarantee by fine-tuning a pretrained generative language model with DP.
Outcome: The proposed method produces synthetic text competitive in terms of utility with its non-private counterpart, while providing strong protection against potential privacy leakages.
Differentially Private Natural Language Models: Recent Advances and Future Directions (2024.findings-eacl)

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Challenge: Recent advances in deep learning have led to great success in various natural language processing tasks.
Approach: They propose a systematic review of recent advances in DP deep learning models . they discuss some differences and additional challenges of DP-NLP .
Outcome: The proposed method can prevent reconstruction attacks and protect against potential side knowledge while maintaining the privacy of sensitive data.
On the Impact of Noise in Differentially Private Text Rewriting (2025.findings-naacl)

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Challenge: a field of text privatization often requires the addition of noise to vector representations of text . however, noise addition leads to considerable utility loss, highlighting one drawback of DP in NLP.
Approach: They propose a sentence-infilling privatization technique that adds noise to vector representations of text to provide privacy guarantees.
Outcome: The proposed method shows that non-DP privatization methods excel in utility preservation and can find an acceptable privacy-utility trade-off, but cannot outperform DP methods in empirical privacy protections.
One size does not fit all: Investigating strategies for differentially-private learning across NLP tasks (2022.emnlp-main)

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Challenge: Existing research on the efficiency of differentially-private stochastic gradient descent (DP-SGD) in NLP is inconclusive or even counter-intuitive.
Approach: They propose to use differentially-private stochastic gradient descent (DP-SGD) to preserve privacy in NLP by using modern neural models based on BERT and XtremeDistil architectures to conduct extensive experiments.
Outcome: The proposed models and training strategies provide the best trade-off between privacy and performance on different NLP tasks.
Towards Privacy-Preserving Large Language Model: Text-free Inference Through Alignment and Adaptation (2026.acl-long)

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Challenge: Existing LLMs require users to submit raw text regardless of its sensitivity, resulting in substantial computational overhead and degrade model performance.
Approach: They propose a new training pipeline that allows a client-side encoder to condition on k-pooled prompt embeddings instead of raw text and a server-side projection module to fine-tune the projection module and LLM on private, domain-specific data using noise-injected embeddables.
Outcome: The proposed approach eliminates the need for transmitting raw prompt text while maintaining a favorable balance between privacy preservation and model utility for both clients and service providers.

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