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This research addresses the challenge of reconstructing physical fields from fragmented observations by introducing a hybrid estimator that combines local spatial priors with global domain corrections. By reconciling overlapping local predictions against full-domain evidence, the method significantly reduces error metrics on real-world ocean datasets where data gaps are inherent. The approach demonstrates how structural learning can mitigate the tendency of standard models to smooth out critical localized variations in incomplete data scenarios.
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Learning Field Reconstruction from Incomplete Data by Globally Correcting Local Estimates

arXiv3 min read

arXiv:2610.05375v1 Announce Type: new Abstract: Reconstructing physical fields from training samples that are always incomplete requires learning spatial structure from fragmented observations.Existing context--query work establishes how held-out observations provide valid training targets, but this does not make the complete-field distribution identifiable when every training field is incomplete.With finite data, weak evidence of sharp transitions and localized variations can further favor averaged predictions that attenuate local detail.A structural prior is therefore needed to favor plausible completions; local spatial relationships offer one grounded in the observations.We propose a locally constructed, globally revisable estimator that explicitly learns local field estimates and subsequently corrects them using full-domain observations.A shared coordinate-conditioned predictor learns from incomplete patches, allowing relatively well-observed neighborhoods to provide direct supervision of local structure.Its overlapping predictions are reconciled into an observation-conditioned consensus field.A full-domain estimator retains the original observations and learns a residual correction around this frozen field estimate, allowing locally constructed structure to be revised by broader evidence.The local estimate serves as both an explicit input, accompanied by its discrepancies with the observations, and a prediction starting point that the global model can revise.On three real-world ocean datasets with authentic observation gaps, our estimator achieves the lowest MSE and highest PSNR on withheld source-supported values, reducing MSE by 28.9\%--34.5\% against the strongest external baseline.

Abstract:Reconstructing physical fields from training samples that are always incomplete requires learning spatial structure from fragmented this http URL context--query work establishes how held-out observations provide valid training targets, but this does not make the complete-field distribution identifiable when every training field is this http URL finite data, weak evidence of sharp transitions and localized variations can further favor averaged predictions that attenuate local detail.A structural prior is therefore needed to favor plausible completions; local spatial relationships offer one grounded in the this http URL propose a locally constructed, globally revisable estimator that explicitly learns local field estimates and subsequently corrects them using full-domain observations.A shared coordinate-conditioned predictor learns from incomplete patches, allowing relatively well-observed neighborhoods to provide direct supervision of local this http URL overlapping predictions are reconciled into an observation-conditioned consensus field.A full-domain estimator retains the original observations and learns a residual correction around this frozen field estimate, allowing locally constructed structure to be revised by broader this http URL local estimate serves as both an explicit input, accompanied by its discrepancies with the observations, and a prediction starting point that the global model can this http URL three real-world ocean datasets with authentic observation gaps, our estimator achieves the lowest MSE and highest PSNR on withheld source-supported values, reducing MSE by 28.9\%--34.5\% against the strongest external baseline.

Artificial Intelligence (cs.AI)

arXiv:2610.05375 [cs.AI]

(or arXiv:2610.05375v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2610.05375 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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