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This preprint proposes Test-Time Memory Evolution (TTME), which improves an LLM during discovery by updating an external memory rather than its weights, as an alternative to test-time training. On five mathematical tasks it reports better results than TTT with 83-85% fewer FLOPs and 48-58% lower runtime. Readers should note that these are single-paper results on math tasks under one discovery framework, so generalization to other scientific domains and larger models remains untested.
Can Test-Time Memory Evolution Outperform Test-Time Training for Scientific Discovery?
arXiv:2610.32046v1 Announce Type: cross Abstract: Recent \emph{test-time training} (TTT) frameworks have enabled open-weight large language models (LLMs) to outperform inference-only frameworks powered by frontier models on scientific discovery tasks. However, TTT introduces additional computational cost for online weight updates during the discovery process, making computational efficiency an important consideration when scaling to larger models. This motivates us to explore an efficient \emph{test-time adaptation} method for scientific discovery. We introduce \emph{Test-Time Memory Evolution} (TTME), a plug-and-play test-time adaptation method, as an alternative to TTT. TTME continually updates the external memory by distilling the experience to guide subsequent discovery without updating model weights. To have a clean comparison, we evaluate TTME and TTT under the same discovery framework, replacing only the test-time adaptation method. Our evaluation shows that TTME outperforms TTT on all five mathematical tasks, while reducing computational cost by $82.8$-$84.6\%$ in FLOPs and $47.7$-$58.4\%$ in runtime. These results establish TTME as an effective and computationally efficient alternative to TTT in the evaluated discovery settings.
Title:Can Test-Time Memory Evolution Outperform Test-Time Training for Scientific Discovery?
Abstract:Recent \emph{test-time training} (TTT) frameworks have enabled open-weight large language models (LLMs) to outperform inference-only frameworks powered by frontier models on scientific discovery tasks. However, TTT introduces additional computational cost for online weight updates during the discovery process, making computational efficiency an important consideration when scaling to larger models. This motivates us to explore an efficient \emph{test-time adaptation} method for scientific discovery. We introduce \emph{Test-Time Memory Evolution} (TTME), a plug-and-play test-time adaptation method, as an alternative to TTT. TTME continually updates the external memory by distilling the experience to guide subsequent discovery without updating model weights. To have a clean comparison, we evaluate TTME and TTT under the same discovery framework, replacing only the test-time adaptation method. Our evaluation shows that TTME outperforms TTT on all five mathematical tasks, while reducing computational cost by $82.8$-$84.6\%$ in FLOPs and $47.7$-$58.4\%$ in runtime. These results establish TTME as an effective and computationally efficient alternative to TTT in the evaluated discovery settings.
Artificial Intelligence (cs.AI); Machine Learning (cs.LG)
arXiv:2610.32046 [cs.AI]
(or arXiv:2610.32046v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2610.32046 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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