Keeping Designers in the Loop: Communicating Inherent Algorithmic Trade-offs Across Multiple Objectives
Bowen Yu, Ye Yuan, Loren Terveen, Zhiwei Steven Wu, Jodi Forlizzi,, Haiyi Zhu

TL;DR
This paper introduces a visualization method that helps designers and users understand and navigate the inherent trade-offs in AI algorithms, especially between accuracy and fairness, to better align with their goals.
Contribution
It presents a novel approach for exploring and visualizing algorithmic trade-offs, enabling better decision-making in designing AI systems with complex objectives.
Findings
Method improves understanding of trade-offs among designers and users
Experiment shows increased alignment with user goals
Domain experts find the method useful for decision-making
Abstract
Artificial intelligence algorithms have been used to enhance a wide variety of products and services, including assisting human decision making in high-stakes contexts. However, these algorithms are complex and have trade-offs, notably between prediction accuracy and fairness to population subgroups. This makes it hard for designers to understand algorithms and design products or services in a way that respects users' goals, values, and needs. We proposed a method to help designers and users explore algorithms, visualize their trade-offs, and select algorithms with trade-offs consistent with their goals and needs. We evaluated our method on the problem of predicting criminal defendants' likelihood to re-offend through (i) a large-scale Amazon Mechanical Turk experiment, and (ii) in-depth interviews with domain experts. Our evaluations show that our method can help designers and users of…
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Taxonomy
TopicsEthics and Social Impacts of AI · Explainable Artificial Intelligence (XAI) · Adversarial Robustness in Machine Learning
