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This repository has been archived by the owner on Jun 30, 2023. It is now read-only.
Following up on a conversation @jds485 and I had with Joel Blomquist yesterday, it would be interesting to see how much process information the model learns from spatially-distributed (snapshot) samples versus the smaller number of high-frequency stations.
I find this question generally interesting when we're thinking about water quality prediction at unmonitored locations, but I also think there's utility in understanding whether our models or predictions are improved by the high-frequency monitoring through the NGWOS program, and/or informing where strategic placement of continuous stations would be most useful*.
*at least for basin- or regional-scale prediction or extrapolation
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Following up on a conversation @jds485 and I had with Joel Blomquist yesterday, it would be interesting to see how much process information the model learns from spatially-distributed (snapshot) samples versus the smaller number of high-frequency stations.
I find this question generally interesting when we're thinking about water quality prediction at unmonitored locations, but I also think there's utility in understanding whether our models or predictions are improved by the high-frequency monitoring through the NGWOS program, and/or informing where strategic placement of continuous stations would be most useful*.
*at least for basin- or regional-scale prediction or extrapolation
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