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On the Power of Decision Trees in Auto-Regressive Language Modeling

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arxiv 2409.19150 v1 pith:BYZQCFHX submitted 2024-09-27 cs.CL

classification cs.CL
keywords ardtslanguagecomputationalauto-regressivecomplexdecisionmodelmodeling
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Originally proposed for handling time series data, Auto-regressive Decision Trees (ARDTs) have not yet been explored for language modeling. This paper delves into both the theoretical and practical applications of ARDTs in this new context. We theoretically demonstrate that ARDTs can compute complex functions, such as simulating automata, Turing machines, and sparse circuits, by leveraging "chain-of-thought" computations. Our analysis provides bounds on the size, depth, and computational efficiency of ARDTs, highlighting their surprising computational power. Empirically, we train ARDTs on simple language generation tasks, showing that they can learn to generate coherent and grammatically correct text on par with a smaller Transformer model. Additionally, we show that ARDTs can be used on top of transformer representations to solve complex reasoning tasks. This research reveals the unique computational abilities of ARDTs, aiming to broaden the architectural diversity in language model development.

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  1. Position: A Theory of Deep Learning Must Include Compositional Sparsity

    cs.LG 2025-07 conditional novelty 4.0 of 10

    All polynomial-time computable functions are compositionally sparse, and this property is the proposed reason deep networks avoid the curse of dimensionality and achieve practical success.

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