Modeling the Effects of Climate and Land Cover Change in the Stoney Brook Subbasin of the St. Louis River Watershed

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Modeling the Effects of Climate and Land Cover Change in the Stoney Brook Subbasin of the St. Louis River Watershed Joe Johnson and Jesse Pruette 214 NASA Research Internship Geospatial Technologies Program Graduates Elizabeth Jones, PI Environmental Modeling and Research Experience (EMARE) Award NNX11AQ96G Geospatial Technologies Faculty Fond du Lac Tribal and Community College, Cloquet, Minnesota

ENVIRONMENTAL MODELING AND RESEARCH EXPERIENCE Model St. Louis River Watershed Predict effects in stream flow base on climate or other environmental changes

3655 square miles Contains 488 streams, ditches and channels

185.2 square kilometers

ArcSwat: Soil and Water Assessment Tool Developed by Texas A&M University Extension in ArcGIS Calibration: 4/1/26-12/31/28 Validation: 1/1/29-12/31/2 Scenarios: 26 vs 1992 land cover IPCC A1B climate projection

Digital Elevation Model (DEM) USGS- National Map Viewer 1 ArcSecond 26 NLCD Land Cover MRLC 26 data Soil Data USGS Soildatamar t STATSGO Slope ArcSWAT Derived from the DEM

2 15 5 Gage(cms) SWAT(cms) 16 11 6 1 Gage Monthly Mean(cms) -4

2 15 5 Gage(cms) SWAT(cms) Nash- Sutcliffe.56815 Mean Error.21521 MAE.64487 RMSE 1.242856 r.847989

2 4 6 8 12 14 16 Jan-9 Feb-9 Mar-9 Apr-9 May-9 Jun-9 Jul-9 Aug-9 Sep-9 Oct-9 Nov-9 Dec-9 Jan- Feb- Mar- Apr- May- Jun- Jul- Aug- Sep- Oct- Nov- Dec- Gage Monthly Mean(cms) SWAT Monthly Mean(cms) 2 4 6 8 12 14 16 Gage(cms) SWAT(cms)

16 14 12 8 6 4 2 Gage(cms) SWAT(cms) Nash-Sutcliffe.219228 Mean Error -.7317 MAE.819763 RMSE 1.444597 r.64811

COMPARED THE FLOW OUTPUTS OF CALIBRATED MODEL WHEN 1992 LAND COVER WAS USED AND 26 LAND COVER WAS USED THE ONLY CHANGED INPUTS IN SWAT WERE THE LAND COVER DATA

IPCC Models Used A1B Scenario Manually changed temperature and precipitation values in SWAT input tables Two Climate Change Scenarios 1. 5 Year Climate Projection 2. Year Climate Projection Used Median of year projections for temp/precipition and ½ of the median for 5 year projections Distinguished changes in temperature and precipitation seasonally, based on seasonal distinctions made by the IPCC

Percent Coverage Percent 6 5 4 3 2 LC1992 LC26 8 6 4 2-2 -4-6 -8 Percent Change from 1992 to 26 Land Cover Land Cover Decrease in deciduous forests from 1992 to 26 Increases in forested wetlands and non-forested wetlands

Flow (cubic meters/sec) There was no statistically significant change in flow outputs T-test P-value of.1778 16 SWAT Simulated Flow, 4/1/26-12/31/28 14 12 8 Flow with 1992 Land Cover 6 4 2

IPCC s Year A1B Projection, Central and North America Season Mean Temp. Response DJF 3.5 5 MAM 3.3 7 JJA 4.1-3 SON 3.5 4 Annual 3.5 3 Season Mean Temp. Response Mean Precip. Response (%) IPCC S 5 Year A1B Projection, Central and North America DJF 1.75 2.5 MAM 1.65 3.5 JJA 2.5-1.5 SON 1.75 2 Annual 1.75 1.5 Mean Precip. Response (%)

4/1/26 5/1/26 6/1/26 7/1/26 8/1/26 9/1/26 /1/26 11/1/26 12/1/26 1/1/27 2/1/27 3/1/27 4/1/27 5/1/27 6/1/27 7/1/27 8/1/27 9/1/27 /1/27 11/1/27 12/1/27 1/1/28 2/1/28 3/1/28 4/1/28 5/1/28 6/1/28 7/1/28 8/1/28 9/1/28 /1/28 11/1/28 12/1/28 Flow (cubic meters/sec) 16 14 12 Changes in Flow Outputs Using Climate Change Projections 4/1/26-12/31/28 8 6 4 Simulated Flow (Current Weather) Simulated Flow with 5 Year A1B Scenario 2

4/1/26 5/1/26 6/1/26 7/1/26 8/1/26 9/1/26 /1/26 11/1/26 12/1/26 1/1/27 2/1/27 3/1/27 4/1/27 5/1/27 6/1/27 7/1/27 8/1/27 9/1/27 /1/27 11/1/27 12/1/27 1/1/28 2/1/28 3/1/28 4/1/28 5/1/28 6/1/28 7/1/28 8/1/28 9/1/28 /1/28 11/1/28 12/1/28 Flow (cubic meters/sec) 16 14 12 Changes in Flow Outputs Using Climate Change Projections 4/1/26-12/31/28 8 6 4 Simulated Flow (Current Weather) 2

Our model showed statistically significant changes in flow outputs when using climate change projections P-value of.29 for original climate scenario and 5 year projection P-value =.28 for year projection

16 14 12 8 6 4 2 Flow with 1992 Land Cover Flow with 26 Land Cover T-test P-value of.1778 There was no statistically significant change in flow outputs

Percent Coverage 6 5 4 3 2 LC1992 LC26 No increase in urbanization Decrease in Deciduous Forest Increase in Wetland forest Majority Forested wetlands Land Cover

16 14 12 8 6 4 2 Simulated Flow (Current Weather) Statistically significant change in flow outputs when using climate change projections P-value of.29 for original climate scenario and 5 year projection P-value of.28 for year projection

Average Change (in cubic meters/sec).2 -.2 -.4 -.6 -.8 Avg. Change of Original Flow to 5 Year Projection Flow Competitive Factors: Annual Change in Precipitation Annual Change in Temperature 5yr +1.5% +1.75 C yr +3% +3.5 C Precipitation generally increases runoff and therefore stream flow Temperature increases ET, generally decreasing stream flow -1 DJF MAM JJA SON Net result: reduction in stream flow ET primary driver of model

Further calibration Sediment yield Examine whole St. Louis River Watershed