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Workflow.txt
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Workflow for 1DTempPro
Jack Lange
5/22/18
1. Process PZ and SG data
-Raw piezometer data must be processed using the SC_Diver script to establish a consistent datum for all of the piezometers and subtract
barometric pressure from the PZ measurments. The result of this step is a head time series for each PZ and the stream gauge.
2. calculate head differences
-Calculate the difference in head between each PZ and the stream gauge and save this as a time series, I don't have a script for this
-caution:make sure the time intervals and the start+end date of both time series are the same
3. Correct the head difference time series (ONLY 2016)
-The true eleveation of the stream gauge was not measured before the stream gauge was moved halfway through the summer
-This was corrected by the method described in SecondCreekGit\SCRIPT OUTPUTS\Head ts for 1dtemppro\Scaled using PZStickup\SCALED dh seris calculations.txt
-SecondCreekGit\Scripts\Preparing head time series for 1dtemppro\BackCalc_ds_from_q.py was used to accomplish this
4. Calculate dh/ds, then scale it for 1DTempPro
-Divide each head difference time series by the distanct from the top of that PZ's screen to the water-sediment interface (results in dh/ds)
-Multiply dh/ds by the distance between the deepst temperature probe and the shallowest probe (results in the delta-h time series that 1DTempPro takes as an input)
-the "___ dh calc.py" scripts located in C:\SecondCreekGit\Scripts\Preparing head time series for 1dtemppro were used for this
-delta-h data must be put in the format described in https://water.usgs.gov/ogw/bgas/1dtemppro/TUTORIAL.txt be careful of extra spaces
-1DTempPro takes positive delta-h to indicate higher head at the top of the model (downwards gradient)
5. Prepare temperature data
-Raw temperature probe data must be processed using C:\SecondCreekGit\Scripts\Temp probe calibration\SC_ReadNewTempProbe.m
-Temperature data must be put in the format described in https://water.usgs.gov/ogw/bgas/1dtemppro/TUTORIAL.txt
-be careful of extra spaces, and it must go from shallowest to deepest.
6. operate 1DTempPro
-Select data file (choose the processeed and properly formatted temperature probe data file i.e. C:\SecondCreekGit\DATA\TEMP\2016\PROCESSED\TPA.csv)
-Options -> Parameter estimation options -> select the radio button for teh parameter of interest
1. Estimate K mode
Reuired inputs: all thermal parameters, porosity, delta-h time series, temperature probe data
Output: hydraulic conductivity
-Choose the time-varying delta-h radio button, select the appropriate delta-h time series (SecondCreekGit\SCRIPT OUTPUTS\Head ts for 1dtemppro\Scaled using PZStickup\Shifted for dh continuity\PZCW full_summer_shift.csv)
-Options -> Parameter estimation options -> select the radio button for Hydraulic conductivity parameter of interest ->save and close
-Type in appropriate thermal parrameters
-Click 'estimate K' at the bottom
2. Estimate q mode
Required inputs: all thermal parameters, porosity, temp probe data
Output: time--average q
-select radio button for constant q
-Options -> Parameter estimation options -> select the radio button for Specific Discharge -> save and close
-Type in appropriate thermal parameters
- click 'Estimate q'
(positive q is downwardsflux)