GEM-T: Generative Tabular Data via Fitting Moments.

Tabular data dominates data science but poses challenges for generative models, especially when the data is limited or sensitive. We present a novel approach to generating synthetic tabular data based on the principle of maximum entropy-MaxEnt-called GEM-T, for "generative entropy maximization for tables." GEM-T directly captures <i>n</i> <sup>th</sup>-order interactions-pairwise, third-order, etc.-among columns of training data. In extensive testing, GEM-T matches or exceeds deep neural network approaches previously regarded as state-of-the-art in 23 of 34 publicly available datasets representing diverse subject domains (68%). Notably, GEM-T involves orders-of-magnitude fewer trainable parameters, demonstrating that much of the information in real-world data resides in low-dimensional, potentially human-interpretable correlations, provided that the input data is appropriately transformed first. Furthermore, MaxEnt better handles heterogeneous data types (continuous vs. discrete vs. categorical), lack of local structure, and other features of tabular data. GEM-T represents a promising direction for light-weight high-performance generative models for structured data.

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Publication Details

Journal
PubMed
Published
2025-09-22
Primary Topic
Generative Adversarial Networks and Image Synthesis
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article
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article

GEM-T: Generative Tabular Data via Fitting Moments.

PubMed
Generative Adversarial Networks and Image Synthesis
article

GEM-T: Generative Tabular Data via Fitting Moments.

article en

Abstract

Tabular data dominates data science but poses challenges for generative models, especially when the data is limited or sensitive. We present a novel approach to generating synthetic tabular data based on the principle of maximum entropy-MaxEnt-called GEM-T, for "generative entropy maximization for tables." GEM-T directly captures <i>n</i> <sup>th</sup>-order interactions-pairwise, third-order, etc.-among columns of training data. In extensive testing, GEM-T matches or exceeds deep neural network approaches previously regarded as state-of-the-art in 23 of 34 publicly available datasets representing diverse subject domains (68%). Notably, GEM-T involves orders-of-magnitude fewer trainable parameters, demonstrating that much of the information in real-world data resides in low-dimensional, potentially human-interpretable correlations, provided that the input data is appropriately transformed first. Furthermore, MaxEnt better handles heterogeneous data types (continuous vs. discrete vs. categorical), lack of local structure, and other features of tabular data. GEM-T represents a promising direction for light-weight high-performance generative models for structured data.

PubMed
Beth Israel Deaconess Medical Center (US), Harvard University (US)
Openalex Percentile: Top 39%
Generative Adversarial Networks and Image Synthesis
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