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This research demonstrates the architecture required for verifiably grounded geologic inference, where multimodal vision-language models must balance local visual evidence with retrieved historical scientific records to avoid relying on memorized priors. The study highlights a critical distinction in automated reasoning: while terrain description can be derived directly from data, quantitative metrics like numeric age dating require explicit integration of open-book retrieval mechanisms to ensure factual accuracy.
Verifiably grounded machine interpretation of lunar geology
arXiv:2608.09276v2 Announce Type: replace Abstract: Planetary geology relies on historical, interpretive reasoning to reconstruct past events from diverse observations. Here, we investigate how far this interpretive workflow can be automated by a multimodal vision-language model. Focusing on the stratigraphy of lunar basaltic mare volcanism, we train a model to generate verifiably grounded geologic interpretations directly from co-registered topographic, spectral, and geologic maps. We demonstrate that while the system successfully balances established geological priors with local visual evidence to accurately describe stratigraphy and terrain, numeric age dating derived solely from vision defaults to memorized priors. Integrating an open-book retrieval mechanism resolves this, enabling the model to faithfully cite published chronologies. Our findings delineate the necessary architecture for automated geologic inference: site evidence must be visually interpreted from local data, while quantitative historical context must be retrieved from the scientific record.
Abstract:Planetary geology relies on historical, interpretive reasoning to reconstruct past events from diverse observations. Here, we investigate how far this interpretive workflow can be automated by a multimodal vision-language model. Focusing on the stratigraphy of lunar basaltic mare volcanism, we train a model to generate verifiably grounded geologic interpretations directly from co-registered topographic, spectral, and geologic maps. We demonstrate that while the system successfully balances established geological priors with local visual evidence to accurately describe stratigraphy and terrain, numeric age dating derived solely from vision defaults to memorized priors. Integrating an open-book retrieval mechanism resolves this, enabling the model to faithfully cite published chronologies. Our findings delineate the necessary architecture for automated geologic inference: site evidence must be visually interpreted from local data, while quantitative historical context must be retrieved from the scientific record.
Computation and Language (cs.CL); Machine Learning (cs.LG)
arXiv:2608.09276 [cs.CL]
(or arXiv:2608.09276v2 [cs.CL] for this version)
https://doi.org/10.48550/arXiv.2608.09276 Focus to learn more arXiv-issued DOI via DataCite
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