ENVIRONMENTAL LAYERS MEETING IPLANT TUCSON 2012-02-17 Roundup Benoit Parmentier.

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Presentation transcript:

ENVIRONMENTAL LAYERS MEETING IPLANT TUCSON Roundup Benoit Parmentier

What I have been doing so far: 1)Background work Reading about the project and IPLANT. Catching up on the processing done. Reading about GAM and Thin Plate Spline: Wood, Hijman, Daly, etc. 2)Processing&Analysis Preparing the GIS variables for the regression. Preprocessing the station data for the Oregon case study. Writing up a script to produce some “pilot” results.

The ghcn daily 2010 data was downloaded from NCDC and the records relevant to Oregon and TMAX were selected. ftp://ftp.ncdc.noaa.gov/pub/data/ghcn/daily/ 2) Processing&Analysis ->Preprocessing the station data for the Oregon case

SRTM DATA CLIPPED IN MODIS SINUSOIDAL PROJECTION SRTM DATA

srtm_1km_ClippedTo_OR83M.rst SRTM DATA This is the SRTM data projected in Lambert Conformal.

reclass groupreclass Distance PRODUCTION OF DISTANCE TO OCEAN LAYER Land Cover Layer 10 Distance to ocean

PRODUCTION OF THE VARIABLE ASPECT

PRODUCTION OF DISTANCE TO OCEAN LAYER There were 14 relevant layers used for the regression: ELEVATION: W_SRTM_1KM_CLIPPEDTO_OR83M.rst ASPECT : W_SRTM_1KM_CLIPPEDTO_OR83M_ASPECT.rst LC1 : W_Layer1_ClippedTo_OR83M.rst LC2 : W_Layer2_ClippedTo_OR83M.rst LC3 : W_Layer3_ClippedTo_OR83M.rst LC4 : W_Layer4_ClippedTo_OR83M.rst LC5 : W_Layer5_ClippedTo_OR83M.rst LC6 : W_Layer6_ClippedTo_OR83M.rst LC7 : W_Layer7_ClippedTo_OR83M.rst LC8 : W_Layer8_ClippedTo_OR83M.rst LC9 : LCW_Layer9_ClippedTo_OR83M.rst LC10 : W_Layer10_ClippedTo_OR83M.rst DISTOC :W_Layer10_ClippedTo_OR83M_GROUPSEAD_DIST.rst CANHEIGHT :W_GlobalCanopy_ClippedTo_OR83M.rst Variables for the regression.

2) Processing&Analysis -Preprocessing the station data for the Oregon case Relevant variables were extracted to produce a small dataset for the regression… This the dataset loaded in R-studio.

REGRESSION 1: LINEAR REGRESSION > 2) Processing&Analysis ANUSPLIN LIKE MODEL:

2) Processing&Analysis -ANUSPLIN LIKE MODEL REGRESSION 1: GAM REGRESSION >

2) Processing&Analysis-PRISM LIKE MODEL REGRESSION 2: LINEAR REGRESSION

REGRESSION 2: GAM REGRESSION Data frame excerpt or table from QGIS 2) Processing&Analysis-PRISM LIKE MODEL

REGRESSION COMPARISON 2) Processing&Analysis- BASIC MODEL COMPARISON The RMSE validation is done on 30% of the original dataset. modelRMSEdfAIC 1yplA ypgA yplP ypgP

Climate ANUSPLIN: T max =f(lat,lon,elev)+  PRISM: T max =f(lat,lon,elev,inversion,marinedistance, aspect)+  Us: T max =f(lat,lon,elev,marinedistance, aspect, LST*Tree Height*land cover, cloud)+  Us: Precip=f(lat,lon,elev,marinedistance, aspect, TRMM,Soil Moisture SMOS, Cloud – prevailing wind*distance from ocean*rainshadow)+  Tmax, Tmin, Precip, (Snow depth?) Fit f using: – GAM with thin-plate spline – GWR – Thin-plate spline – Co-Kriging – OLS – Neural net Validate w/ & w/o satellite data