ShapX Engine: A Demonstration of Shapley Value Approximations

Interpreting decisions made by machine learning models helps build trust in their predictions, ultimately facilitating their practical application. Shapley values have emerged as a popular and theoretically robust method for interpreting models by quantifying the contribution of each feature toward individual predictions. The inherent complexity associated with the computation of Shapley values as an NP-hard problem has driven the development of numerous approximation techniques, leading to a plethora of options in literature. This abundance of choices has created a substantial gap in determining the most appropriate approach for practical applications. To address this gap, we propose ShapX, a web engine that comprehensively evaluates 17 approximation methods across diverse regression and classification tasks. ShapX facilitates an interactive exploration of the strengths and limitations of various Shapley value approximations by guiding users through the suitable selections of replacement and tractable estimation strategies. Ultimately, our study reveals that strategies competent at capturing all the feature interactions leading to accurate estimations of Shapley values. ShapX also allows users to effortlessly upload their own dataset along with the corresponding machine learning model, enabling them to obtain detailed individualized explanations. A detailed walkthrough video of the demonstration is available online. Video link: https://youtu.be/5uPocjPUAA8.

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Publication Details

Published
2025-06-17
DOI
https://doi.org/10.1145/3722212.3725135
Citations
4
Primary Topic
Scientific Computing and Data Management
Type
article
Field-Weighted Citation Impact
16.68
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article

ShapX Engine: A Demonstration of Shapley Value Approximations

John Paparrizos, Suchit Gupte
4 citations
Scientific Computing and Data Management
16.68
article

ShapX Engine: A Demonstration of Shapley Value Approximations

John Paparrizos, Suchit Gupte
article en
4 citations

Abstract

Interpreting decisions made by machine learning models helps build trust in their predictions, ultimately facilitating their practical application. Shapley values have emerged as a popular and theoretically robust method for interpreting models by quantifying the contribution of each feature toward individual predictions. The inherent complexity associated with the computation of Shapley values as an NP-hard problem has driven the development of numerous approximation techniques, leading to a plethora of options in literature. This abundance of choices has created a substantial gap in determining the most appropriate approach for practical applications. To address this gap, we propose ShapX, a web engine that comprehensively evaluates 17 approximation methods across diverse regression and classification tasks. ShapX facilitates an interactive exploration of the strengths and limitations of various Shapley value approximations by guiding users through the suitable selections of replacement and tractable estimation strategies. Ultimately, our study reveals that strategies competent at capturing all the feature interactions leading to accurate estimations of Shapley values. ShapX also allows users to effortlessly upload their own dataset along with the corresponding machine learning model, enabling them to obtain detailed individualized explanations. A detailed walkthrough video of the demonstration is available online. Video link: https://youtu.be/5uPocjPUAA8.

The Ohio State University (US)
Openalex Percentile: Top 1%
Scientific Computing and Data Management
16.68
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