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This repository has been archived by the owner on Sep 18, 2024. It is now read-only.
In order to make your september timeframe, I’d plan on making no
modifications to the existing code, and concentrate on getting the
groundwater basins in place. In general, I’d discourage you from moving
away from grass, and instead look to take advantage of the grass/python
interface, and keep the processing, especially the raster processing.
Copy Zipcode Methodology
The current zipcode methodology assigns a every cell to one zipcode, and
assigns at least one cell to every zipcode. The average of the cells is
used for the zipcode. This seems like a good method for the the
groundwater vectors as well. The current code uses a simple script for
this, but there might be a better grass command for that. I can’t remember
why we did it that way.
Use Groundwater shapes
Similar to the zipcode, the methodology is to convert those groundwater
areas into sets of 500m ET pixels.
Distribution
In our current methodology, we are constrained in our distribution in that
the zipcode needed to go into the CIMIS Oracle distribution. In addition,
we are constrained to the 2km raster processing. We need to understand if
we have any similar constraints we have.
Use CIMIS Mobile app template
If you don’t have any requirements to the distribution method, For the
September timeframe, I would abandon the interactive geometry interface,
and instead focus on a more simple implementation. Back in 2018, we
developed a CIMIS Mobie App. This app uses a simple REDIS database to
provide access to pixels and zipcodes. It is a 2 week ring buffer. I
would just the same methodology, extended with ring buffers for the ground
water basins.
Keep 2 weeks data
We found a two week ring buffer was great for graphs. Another good
feature of that is you can use this for better predictions later, when you
add (our awesome) ETo prediction functions.
Summarize Beyond that at 14 day(I think)
One thing you could do too add to this application is to add a
summarizatio step to the two week feed. What we ended up in our ETO zone
maps was to create 14day moving window averages, provided at 1 week
increments. We had previously determined these were the appropriate
aggregations, and that’s what I’d use initially.
New Algorythmic Development
Divide into radiation / interpolation
Radiation
Turbidity
Environmental Radiation?
Slope, Aspect, Horizon
Interpolation
Re-evaluate Normalization Step
Review for better Wind Speed models
The text was updated successfully, but these errors were encountered:
I completely forgot the modifications for moving to a internet based GOES processing. I would still put that past the September timeframe. I'd have to do some timing on the goes data, but I would probably try and maintain the near up to date Radiation calculation, and fetch data multiple times over the day. You might be able to get away with mesocale downloads, but my guess would be to use CONUS and keep the it simple. After getting that organized, you could look to update with cloud cover as we discussed.
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11:55 Spatial CIMIS 3.0
September Timeframe
In order to make your september timeframe, I’d plan on making no
modifications to the existing code, and concentrate on getting the
groundwater basins in place. In general, I’d discourage you from moving
away from grass, and instead look to take advantage of the grass/python
interface, and keep the processing, especially the raster processing.
Copy Zipcode Methodology
The current zipcode methodology assigns a every cell to one zipcode, and
assigns at least one cell to every zipcode. The average of the cells is
used for the zipcode. This seems like a good method for the the
groundwater vectors as well. The current code uses a simple script for
this, but there might be a better grass command for that. I can’t remember
why we did it that way.
Use Groundwater shapes
Similar to the zipcode, the methodology is to convert those groundwater
areas into sets of 500m ET pixels.
Distribution
In our current methodology, we are constrained in our distribution in that
the zipcode needed to go into the CIMIS Oracle distribution. In addition,
we are constrained to the 2km raster processing. We need to understand if
we have any similar constraints we have.
Use CIMIS Mobile app template
If you don’t have any requirements to the distribution method, For the
September timeframe, I would abandon the interactive geometry interface,
and instead focus on a more simple implementation. Back in 2018, we
developed a CIMIS Mobie App. This app uses a simple REDIS database to
provide access to pixels and zipcodes. It is a 2 week ring buffer. I
would just the same methodology, extended with ring buffers for the ground
water basins.
Keep 2 weeks data
We found a two week ring buffer was great for graphs. Another good
feature of that is you can use this for better predictions later, when you
add (our awesome) ETo prediction functions.
Summarize Beyond that at 14 day(I think)
One thing you could do too add to this application is to add a
summarizatio step to the two week feed. What we ended up in our ETO zone
maps was to create 14day moving window averages, provided at 1 week
increments. We had previously determined these were the appropriate
aggregations, and that’s what I’d use initially.
New Algorythmic Development
Divide into radiation / interpolation
Radiation
Turbidity
Environmental Radiation?
Interpolation
Re-evaluate Normalization Step
Review for better Wind Speed models
The text was updated successfully, but these errors were encountered: