Challenge: Increasing use of large language models (LLMs) require performant guardrails to ensure the safety of inputs and outputs . when these guardrail are trained on imbalanced data, they can learn the societal biases resulting from the model's performance.
Approach: They propose a method for mitigating counterfactual fairness in closed-source text safety classifiers by using a debiasing regularizer and a threshold-agnostic metric.
Outcome: The proposed method outperforms classifiers and acts as a debiasing regularizer . it uses threshold-agnostic metrics and Fair Data Reweighting (FDW) to assess the counterfactual fairness of a model .

Similar Papers

Counterfactual Inference for Text Classification Debiasing (2021.acl-long)

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Challenge: Existing methods to capture unintended dataset biases are expensive and require elaborate balancing strategies.
Approach: They propose a model-agnostic text classification debiasing framework which can effectively avoid employing data manipulations or designing balancing mechanisms.
Outcome: The proposed framework can effectively avoid data manipulations or designing balancing mechanisms to capture unintended dataset biases.
A Group Fairness Lens for Large Language Models (2025.findings-emnlp)

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Challenge: Existing methods focusing on a few groups lack a comprehensive categorical perspective to evaluate LLMs’ potential biases and unfairness.
Approach: They propose to evaluate LLM biases from a group fairness lens using a hierarchical schema characterizing diverse social groups.
Outcome: The proposed method mitigates biases in LLMs from a group fairness lens and encapsulates target-attribute combinations across multiple dimensions.
BiasFilter: An Inference-Time Debiasing Framework for Large Language Models (2025.findings-emnlp)

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Challenge: Existing methods for debiasing large language models incur high human and computational costs and are limited in their effectiveness.
Approach: They propose a model-agnostic, inference-time debiasing framework that enforces fairness by filtering generation outputs in real time.
Outcome: The proposed framework mitigates social bias across a range of LLMs while preserving overall generation quality.
The Impossibility of Fair LLMs (2025.acl-long)

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Challenge: Existing frameworks for evaluating large language models do not extend to general-purpose AI contexts or are infeasible in practice.
Approach: They analyze a variety of technical fairness frameworks to find inherent challenges . they find that each framework does not logically extend to the general-purpose AI context .
Outcome: The proposed frameworks do not logically extend to the general-purpose AI context or are infeasible in practice due to large amounts of unstructured training data and potential combinations of human populations, use cases, and sensitive attributes.
FLEX: A Benchmark for Evaluating Robustness of Fairness in Large Language Models (2025.findings-naacl)

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Challenge: Existing safety evaluations may overlook the inherent weaknesses of Large Language Models, despite their benefits.
Approach: They propose a benchmark to evaluate the robustness of Large Language Models under extreme conditions.
Outcome: The proposed approach evaluates the fairness of large language models under extreme conditions.
Watching the AI Watchdogs: A Fairness and Robustness Analysis of AI Safety Moderation Classifiers (2025.naacl-short)

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Challenge: ASM classifiers are designed to moderate content on social media platforms and serve as guardrails that prevent Large Language Models (LLMs) from being fine-tuned on unsafe inputs.
Approach: They examine the fairness and robustness of four widely-used, closed-source ASM classifiers: OpenAI Moderation API, Perspective API, Google Cloud Natural Language (GCNL) API, and Clarifai API.
Outcome: The classifiers do not unfairly classify content belonging to minority groups as unsafe compared to those belonging to majority groups and their behavior remains robust and consistent across similar inputs.
Preserving Fairness and Safety in Quantized LLMs Through Critical Weight Protection (2026.findings-acl)

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Challenge: Existing quantization methods focus on general metrics like perplexity or accuracy on standard benchmarks.
Approach: They propose a method that preserves fairness- and safety-critical weights during quantization.
Outcome: The proposed method reduces bias and safety degradation without costly retraining or alignment while maintaining trustworthiness while retaining efficiency.
Balancing out Bias: Achieving Fairness Through Balanced Training (2022.emnlp-main)

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Challenge: Existing approaches to reducing group bias do not account for correlations between author demographics and linguistic variables, limiting their effectiveness.
Approach: They extend a method for countering group bias using balanced training by balancing each demographic group in training and using protected attributes as input.
Outcome: The proposed model outperforms all other methods when combined with balanced training.
Confronting LLMs with Traditional ML: Rethinking the Fairness of Large Language Models in Tabular Classifications (2024.naacl-long)

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Challenge: Recent studies suggest using large language models to make tabular classifications . however, LLMs have been shown to exhibit harmful social biases based on stereotypes and inequalities present in society.
Approach: They propose to use large language models to make tabular classifications . they show that LLMs inherit biases from their training data .
Outcome: The proposed models exhibit harmful biases that reflect stereotypes and inequalities in society.
Fair-CCD: Mitigating Bias in Large Language Models for Tabular Classification Through Context-Contrastive Decoding (2026.acl-long)

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Challenge: Prior work to mitigate fairness issues often employs subjective demonstration selection, leading to low controllability and limited stability across different models and tasks.
Approach: They propose to use in-context learning to insert social biases into large language models to create a structured and controllable representation of the relationship between sensitive attributes and predicted labels.
Outcome: Extensive experiments show that Fair-CCD consistently improves fairness metrics without degrading task accuracy.

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