Obtaining Dyadic Fairness by Optimal Transport
Moyi Yang, Junjie Sheng, Xiangfeng Wang, Wenyan Liu, Bo Jin, Jun Wang,, Hongyuan Zha

TL;DR
This paper introduces DyadicOT, a novel optimal transport-based pre-processing method that improves fairness in link prediction tasks by aligning conditional distributions, demonstrating superior results on benchmark datasets.
Contribution
It proposes a new data repairing approach based on optimal transport theory to achieve dyadic fairness in graph link prediction, linking fairness with distribution alignment.
Findings
DyadicOT outperforms existing fairness methods on benchmark datasets.
The method effectively achieves dyadic fairness through optimal transport.
Theoretical connection established between dyadic fairness and distribution alignment.
Abstract
Fairness has been taken as a critical metric in machine learning models, which is considered as an important component of trustworthy machine learning. In this paper, we focus on obtaining fairness for popular link prediction tasks, which are measured by dyadic fairness. A novel pre-processing methodology is proposed to establish dyadic fairness through data repairing based on optimal transport theory. With the well-established theoretical connection between the dyadic fairness for graph link prediction and a conditional distribution alignment problem, the dyadic repairing scheme can be equivalently transformed into a conditional distribution alignment problem. Furthermore, an optimal transport-based dyadic fairness algorithm called DyadicOT is obtained by efficiently solving the alignment problem, satisfying flexibility and unambiguity requirements. The proposed DyadicOT algorithm…
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Taxonomy
TopicsAge of Information Optimization · Adversarial Robustness in Machine Learning · Ethics and Social Impacts of AI
