MOBILE BAY. Darius Hixon (Project Lead) Austin Clark Tyler Lynn Manoela Rosa. Monitoring Marsh Conditions in Coastal Alabama. Conservation Initiatives

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National Aeronautics and Space Administration MOBILE BAY MOBILE ECOLOGICAL BAY ECOLOGICAL FORECASTING FORECASTING II II Monitoring Marsh Conditions in Coastal Alabama Monitoring Using NASA Marsh Earth Conditions Observations in Coastal to Support Alabama the Alabama Using NASA Coastal Earth Foundation s Observations Restoration to Support and the Alabama Coastal Conservation Foundation s Initiatives Restoration and Conservation Initiatives Darius Hixon (Project Lead) Austin Clark Tyler Lynn Manoela Rosa

What is DEVELOP? NASA Applied Sciences program that collaborates with decision makers to conduct environmental research projects using NASA Earth observations. DATA NASA DEVELOP DECISION MAKERS DEVELOP DEVELOP bridges the gap between NASA Earth Science and society, building capacity in both its participants and end-user organizations to better prepare them to handle the environmental challenges that face society. DEVELOP is a dual-capacity building program: Partners & Participants

Objectives Apply NASA Earth observations in Mobile and Baldwin Counties to investigate: Marsh health trends Marsh extent Urban development Image Credit :Mobile Bay Eco Forecasting II Team

Community Concerns Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: Mobile Bay Eco Forecasting II Team Pollution Trash Dumping Water Quality Turbidity Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: Mobile Bay Eco Forecasting II Team Image Credit: National Oceanic and Atmospheric Administration Marsh Extent Urbanization Ecological Diversity Economic Cost

Study Area and Period The study area included Mobile and Baldwin Counties, located in Coastal Alabama Study Period: Jan 1987-May 2016 Forecast models and maps through 2030 MARSH HEALTH FORECAST Alabama Study Area ± 0 10 20 40 60 80 Kilometers MARSH EXTENT URBANIZATION Image Source: Mobile Bay Eco Forecasting II Team

NASA Satellites and Sensors Used Landsat 5 - TM Landsat 7 ETM+ Landsat 8 - OLI AQUA - MODIS TERRA - MODIS Image Credit: NASA

Methodology: Marsh Extent Analysis Landsat's 5, 7 and 8 images from 1987-2016, once every 5 years Stack of 4 images each year (12 band composite) Calculated reflectance at the top of the atmosphere Segmented Images Used segments to create training samples Data

Methodology: Marsh Extent Analysis Produced Land Cover Map Masked out everything but the marshes Calculated area of marshes for each year Analysis Water Woody Wetland Urban Non-Woody Wetland Upland Herbaceous Barren Upland Forest

Acres Results: Marsh Extent 24500 24000 23500 23000 22500 22000 21500 21000 Marsh Extent 1987 1992 1996 2001 2006 2011 2016 Years Marsh Extent Marsh extent increasingly changed from 1987 to 2001 Between 2001 and 2006, extent has dropped significantly Hurricanes Ivan (2004) and Katrina (2005) Drought (2006 & 2007), Winter (2010) Conservation efforts &/or natural regeneration

Methodology: Urban Development Analysis Methods and Software Normalized Difference Impervious Surface Index (NDISI) NOAA Impervious Surface Analysis Tool (ISAT) Top of atmosphere reflectance Data 2015 Landsat 8 Images NOAA Coastal Change Analysis Program (C- CAP) (2001-2011) National Land Cover Databases (2001-2011) NDISI Formula: TIR-(VIS+NIR+SWIR)/3 TIR+(VIS+NIR-SWIR)/3 ISAT: C-CAP, NLCD, and HUC-12 watershed shapefiles to estimate risk, percent imperviousness, and impervious surface area Impervious Surfaces 2015 Value High : 1.00 Low: 0.16 Analysis ± Miles 0 0.5 1 2 3 4

Acres Results: Urban Development 14000.00 12000.00 10000.00 8000.00 6000.00 4000.00 2000.00 0.00 Impervious Surface Growth in Priority Watersheds R² = 0.9965 2001 2006 2011 2016 (Estimated) Years Impervious Surfaces Trend Line Impervious surfaces increased by over 24% in priority watersheds from 2001-2011 Addition of 2000+ acres of impervious surfaces 2001-2011 Average growth of +2.4 percent each year Seven watersheds exceed 10% surface imperviousness including four priority watersheds Additional eight watersheds fall into 5-10% warning category Many of these watersheds contain marshes

Results: Urban Development Percent Imperviousness Average 0.00-5.00 5.01-10.00 10.01 25.00 2001 2006 2011

Methodology: Marsh Health Trends Software and Manipulation 8-Day MODIS Composite NDVI Images from the USDA Forest Service ForWarn Dataset from 2000 to 2014 ArcGIS and model builder Microsoft Excel Maps and excel time series plots displaying the diversity of health trends in the study area Datasets Analysis

Methodology: Marsh Health Trends NDVI was selected because it is calibrated for chlorophyll in the leaves of plants This detects seasonality in plant types as well as significant change in biodiversity and leaf coverage Works by comparing the amount of near infrared light reflected from each pixel to the amount of red light reflected

Methodology: Marsh Health Trends Marsh health trends were generated using the model pictured at left This model created graphs in Microsoft Excel and maps to spatially analyze relative trends Percent maximum was used to account for different plant species 1 3 4 7 Mask PMAX Wetlands

Percentage of Max Results: Marsh Health 100 90 80 70 60 Palustrine (PST) vs. Estuarine (EST) These differences in vegetation can be seen in the health patterns Trend lines were also drawn, indicating a downward trend in both palustrine and estuarine wetlands, with the palustrine health declining faster than the estuarine 50 40 2000 2003 2006 2009 2012 2015 Years PST PMAX EST PMAX Linear (PST PMAX) Linear (EST PMAX)

Results: Marsh Health PMAX Other interesting features can be determined from the trends, such as hurricanes, droughts, and harsh winters Little Lagoon Hurricane Ivan Little Lagoon was hit directly by Hurricane Ivan in 2004 and then a drought two years later in 2006, significantly affecting the health

Percentage of Max Results: Marsh Health 100 90 80 Little Lagoon These trends can help to pinpoint areas in need of restoration following significant stressing events 70 60 50 2000 2003 2006 2009 2012 2015 Years Ivan PMAX Linear (PMAX)

Conclusions Impervious surface areas are increasing in priority watersheds Marsh extent declined during study period but there is evidence of recovery Overall wetland health trends are downward Health trends seem to be most impacted by weather conditions and urbanization

Errors and Uncertainties Spatial and temporal resolution In situ monitoring Ground truth validation Atmospheric correction Cloud Removal Processing time

Acknowledgements Bernard Eichold, M.D., Dr. PH, Mobile County Health Department Kenton Ross, Ph. D., NASA Langley Research Center Saranee Dutta, Previous contributor Vishal Arya, Previous contributor Jeanett Bosarge, Previous contributor Courtney Kirkham, Previous contributor Mark Berte, Alabama Coastal Foundation Just Cebrian, Ph. D., Dauphin Island Sea Lab Mobile Bay National Estuary Program Eastern Forest Environmental Threat Assessment Center of the USDA Forest Service Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Aeronautics and Space Administration. This material is based upon work supported by NASA through contract NNL11AA00B and cooperative agreement NNX14AB60A.