Papers for

crop irrigation planners

Papers whose findings have a practical use for this group, as judged from the abstract. Open a paper to read what it means in practice.

Neural methods guide when satellite water use estimates should change

When Should a Satellite Estimate Be Changed? Stress-Testing Neural Corrections for Evapotranspiration

Abstract: Neural residuals can improve satellite evapotranspiration (ET) estimates, but selectors must predict when a correction helps and reject unsupported inputs. We evaluate ten-member models on 16,366 flux-tower observations from 151 stations paired with OpenET, across nine rolling years and five spatial folds. At one held-out station, Gain accepted corrections on all 32 physically invalid records: it predicted a mean benefit of 0.83 mm/day, but the corrections increased mean absolute error by 21.6 mm/day versus OpenET. On spatially held-out unit errors, SupportGain reduced station-macro MAE versus Gain by 0.148 mm/day under wind x3.6 (simultaneous 95% interval, 0.070 to 0.226), with 9.3% acceptance versus Gain's 51.8%; on clean inputs, its 0.006 mm/day advantage had an interval that includes zero. These fault analyses are exploratory; none of 40 preplanned temporal comparisons passed Holm correction, while a separate predeclared cropland contrast found 0.041 mm/day lower station-macro MAE with crop-only training (95% interval, 0.009 to 0.079).

Mon 28 SeptMachine Learning
The gist
Satellites estimate how much water plants release into the air, but these estimates can sometimes be wrong. The authors studied ways to use neural networks to fix these errors, but only if the fix actually helps. They found that some methods wrongly accepted bad corrections, while others were better at rejecting harmful fixes. Their tests show cautious use of neural corrections can improve accuracy, especially for crops.
Open → 2609.35314v1