{TACTICL}: Task-Aware Compression of Tabular {ICL} Models
The strong performance of foundation models for tabular tasks comes at substantial inference costs. Distilling models into task-specific architectures reduces model size and computational demands but also sacrifices in-context adaptability. Here we introduce TACTICL, an automated task-aware compression framework for tabular in-context learning models that jointly prunes transformer layers and replaces them with lightweight adapters trained on downstream tasks, thus blending in-context with in-weight learning. We study TACTICL on 47 benchmark datasets and show that we can substitute up to 85\% of layers without substantial performance drop on a given downstream task. We further show that TACTICL maintains robustness to data shifts, leaving its in-context ability intact. Overall, TACTICL provides a robust framework for exploiting the depth-wise redundancy of tabular foundation models by combining task-specific adaptation and structured compression. We provide the code at: \url{https://github.com/Hebog/tfm_compression}.
- Published in:
AutoML 2026 - Type:
Inproceedings - Authors:
- Year:
2026 - Source:
https://arxiv.org/abs/2608.10837
Citation information
: {TACTICL}: Task-Aware Compression of Tabular {ICL} Models, AutoML 2026, 2026, {arXiv}:2608.10837, August, {arXiv}, https://arxiv.org/abs/2608.10837, Koshil.etal.2026a,
@Inproceedings{Koshil.etal.2026a,
author={Koshil, Mykhailo; Feurer, Matthias; Eggensperger, Katharina},
title={{TACTICL}: Task-Aware Compression of Tabular {ICL} Models},
booktitle={AutoML 2026},
number={{arXiv}:2608.10837},
month={August},
publisher={{arXiv}},
url={https://arxiv.org/abs/2608.10837},
year={2026},
abstract={The strong performance of foundation models for tabular tasks comes at substantial inference costs. Distilling models into task-specific architectures reduces model size and computational demands but also sacrifices in-context adaptability. Here we introduce TACTICL, an automated task-aware compression framework for tabular in-context learning models that jointly prunes transformer layers and...}}