Adversarially pre-trained transformer (APT) matches top gradient-boosting models on 35 small tabular classification benchmarks and improves on TabPFN in regression, while handling datasets with any number of classes via a mixture block.
Transfer Learning with Deep Tabular Models
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abstract
Recent work on deep learning for tabular data demonstrates the strong performance of deep tabular models, often bridging the gap between gradient boosted decision trees and neural networks. Accuracy aside, a major advantage of neural models is that they learn reusable features and are easily fine-tuned in new domains. This property is often exploited in computer vision and natural language applications, where transfer learning is indispensable when task-specific training data is scarce. In this work, we demonstrate that upstream data gives tabular neural networks a decisive advantage over widely used GBDT models. We propose a realistic medical diagnosis benchmark for tabular transfer learning, and we present a how-to guide for using upstream data to boost performance with a variety of tabular neural network architectures. Finally, we propose a pseudo-feature method for cases where the upstream and downstream feature sets differ, a tabular-specific problem widespread in real-world applications. Our code is available at https://github.com/LevinRoman/tabular-transfer-learning .
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Zero-shot Meta-learning for Tabular Prediction Tasks with Adversarially Pre-trained Transformer
Adversarially pre-trained transformer (APT) matches top gradient-boosting models on 35 small tabular classification benchmarks and improves on TabPFN in regression, while handling datasets with any number of classes via a mixture block.