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This paper establishes theoretical bounds for language generation by linking it to online prediction complexity, specifically analyzing mistake rates under realizable and agnostic settings. It characterizes the minimax complexity of generators using tree-based dimensions and proves optimality for specific Littlestone dimension classes. The work advances foundational machine learning theory rather than proposing a new commercial product or application.
No-Regret Language Generation
arXiv:2610.23641v1 Announce Type: new Abstract: We introduce no-regret generation, which requires a generator to make a sublinear number of mistakes uniformly over all demonstration sequences and compatible target languages. We also formulate an agnostic variant that allows arbitrary demonstrations that may not be compatible with any languages. For both settings, we introduce tree-based mistake-forcing dimensions that exactly characterize finite-horizon minimax complexity and establish necessary and sufficient conditions for no-regret generation. Our characterizations reveal a rich spectrum of generation rates: up to constant rescaling, every admissible nondecreasing profile is attainable in both the realizable and agnostic settings. Finally, we connect generation complexity to online prediction: for language classes of finite Littlestone dimension \(d\), we obtain realizable mistake bounds of \(O(d\log(1+T/d))\) and agnostic regret bounds of \(O(\sqrt{dT\log(1+T/d)})\). The realizable bound is optimal up to universal constants.
Abstract:We introduce no-regret generation, which requires a generator to make a sublinear number of mistakes uniformly over all demonstration sequences and compatible target languages. We also formulate an agnostic variant that allows arbitrary demonstrations that may not be compatible with any languages. For both settings, we introduce tree-based mistake-forcing dimensions that exactly characterize finite-horizon minimax complexity and establish necessary and sufficient conditions for no-regret generation. Our characterizations reveal a rich spectrum of generation rates: up to constant rescaling, every admissible nondecreasing profile is attainable in both the realizable and agnostic settings. Finally, we connect generation complexity to online prediction: for language classes of finite Littlestone dimension \(d\), we obtain realizable mistake bounds of \(O(d\log(1+T/d))\) and agnostic regret bounds of \(O(\sqrt{dT\log(1+T/d)})\). The realizable bound is optimal up to universal constants.
Machine Learning (cs.LG); Machine Learning (stat.ML)
arXiv:2610.23641 [cs.LG]
(or arXiv:2610.23641v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2610.23641 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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