SMEX04 Land Use Classification Data



Similar documents
AMSRIce03 Sea Ice Thickness Data

Using Remote Sensing Imagery to Evaluate Post-Wildfire Damage in Southern California

National Snow and Ice Data Center

Using Remote Sensing to Monitor Soil Carbon Sequestration

Land Use/ Land Cover Mapping Initiative for Kansas and the Kansas River Watershed

AATSR Technical Note. Improvements to the AATSR IPF relating to Land Surface Temperature Retrieval and Cloud Clearing over Land

COASTAL MONITORING & OBSERVATIONS LESSON PLAN Do You Have Change?

Review for Introduction to Remote Sensing: Science Concepts and Technology

APPLICATION OF GOOGLE EARTH FOR THE DEVELOPMENT OF BASE MAP IN THE CASE OF GISH ABBAY SEKELA, AMHARA STATE, ETHIOPIA

A KNOWLEDGE-BASED APPROACH FOR REDUCING CLOUD AND SHADOW ABSTRACT

ASSESSMENT OF FOREST RECOVERY AFTER FIRE USING LANDSAT TM IMAGES AND GIS TECHNIQUES: A CASE STUDY OF MAE WONG NATIONAL PARK, THAILAND

Remote Sensing and Land Use Classification: Supervised vs. Unsupervised Classification Glen Busch

LCCS & GeoVIS for land cover mapping. Experience Sharing of an Exercise

APPLICATION OF MULTITEMPORAL LANDSAT DATA TO MAP AND MONITOR LAND COVER AND LAND USE CHANGE IN THE CHESAPEAKE BAY WATERSHED

Introduction to GIS (Basics, Data, Analysis) & Case Studies. 13 th May Content. What is GIS?

Global environmental information Examples of EIS Data sets and applications

Land Use/Land Cover Map of the Central Facility of ARM in the Southern Great Plains Site Using DOE s Multi-Spectral Thermal Imager Satellite Images

TerraColor White Paper

Forest Service Southern Region Jess Clark & Kevin Megown USFS Remote Sensing Applications Center (RSAC)

How To Update A Vegetation And Land Cover Map For Florida

Remote Sensing Method in Implementing REDD+

Selecting the appropriate band combination for an RGB image using Landsat imagery

Supporting Online Material for Achard (RE ) scheduled for 8/9/02 issue of Science

MODIS IMAGES RESTORATION FOR VNIR BANDS ON FIRE SMOKE AFFECTED AREA

Application of Remotely Sensed Data and Technology to Monitor Land Change in Massachusetts

River Flood Damage Assessment using IKONOS images, Segmentation Algorithms & Flood Simulation Models

JACIE Science Applications of High Resolution Imagery at the USGS EROS Data Center

LiDAR Data Management Lessons for Geospatial Data Managers

Land Cover Mapping of the Comoros Islands: Methods and Results. February ECDD, BCSF & Durrell Lead author: Katie Green

Outline - needs of land cover - global land cover projects - GLI land cover product. legend. Cooperation with Global Mapping project

ANALYSIS OF FOREST CHANGE IN FIRE DAMAGE AREA USING SATELLITE IMAGES

Environmental Remote Sensing GEOG 2021

Imagery. 1:50,000 Basemap Generation From Satellite. 1 Introduction. 2 Input Data

Reprojecting MODIS Images

GIS: Geographic Information Systems A short introduction

The USGS Landsat Big Data Challenge

Accuracy Assessment of Land Use Land Cover Classification using Google Earth

Landsat Monitoring our Earth s Condition for over 40 years

2. VIIRS SDR Tuple and 2Dhistogram MIIC Server-side Filtering. 3. L2 CERES SSF OPeNDAP dds structure (dim_alias and fixed_dim)

Information Contents of High Resolution Satellite Images

SAMPLE MIDTERM QUESTIONS

Mapping Land Cover Patterns of Gunma Prefecture, Japan, by Using Remote Sensing ABSTRACT

IMAGINES_VALIDATIONSITESNETWORK ISSUE EC Proposal Reference N FP Name of lead partner for this deliverable: EOLAB

Digital image processing

Received in revised form 24 March 2004; accepted 30 March 2004

Operational snow mapping by satellites

WATER BODY EXTRACTION FROM MULTI SPECTRAL IMAGE BY SPECTRAL PATTERN ANALYSIS

Supervised Classification workflow in ENVI 4.8 using WorldView-2 imagery

U.S. Geological Survey Earth Resources Operation Systems (EROS) Data Center

A new SPOT4-VEGETATION derived land cover map of Northern Eurasia

3D Visualization of Seismic Activity Associated with the Nazca and South American Plate Subduction Zone (Along Southwestern Chile) Using RockWorks

Remote Sensing of Environment

DEVELOPMENT OF WEB-BASED GIS INTERFACES FOR APPLICATION OF THE WEPP MODEL

Sub-pixel mapping: A comparison of techniques

Resolutions of Remote Sensing

SEMI-AUTOMATED CLOUD/SHADOW REMOVAL AND LAND COVER CHANGE DETECTION USING SATELLITE IMAGERY

A HIERARCHICAL APPROACH TO LAND USE AND LAND COVER MAPPING USING MULTIPLE IMAGE TYPES ABSTRACT INTRODUCTION

Determining the Antarctic Ice Sheet Grounding Line with Photoclinometry using LANDSAT Imagery and ICESat Laser Altimetry

Monitoring Overview with a Focus on Land Use Sustainability Metrics

Learning about GPS and GIS

Introduction to Imagery and Raster Data in ArcGIS

GEO Joint Experiment for Crop Assessment and Monitoring (JECAM): Template for Research Progress Report

VCS REDD Methodology Module. Methods for monitoring forest cover changes in REDD project activities

Forest Biometrics From Space

dynamic vegetation model to a semi-arid

Automatic land-cover map production of agricultural areas using supervised classification of SPOT4(Take5) and Landsat-8 image time series.

Utah State General Records Retention Schedule SCHEDULE 1 GEOSPATIAL DATA SETS

How To Map Land Cover In The Midatlantic Region

Partitioning the Conterminous United States into Mapping Zones for Landsat TM Land Cover Mapping

Generation of Cloud-free Imagery Using Landsat-8

ENVI Classic Tutorial: Atmospherically Correcting Hyperspectral Data using FLAASH 2

Diverse Uses of Hyperspectral Remote Sensing for Mapping and Monitoring of Wetlands

Practical, Easy-to-Use, Free GIS and Remote Sensing Tools for Resource Management

MASS PROCESSING OF REMOTE SENSING DATA FOR ENVIRONMENTAL EVALUATION IN EUROPE

Geospatial Software Solutions for the Environment and Natural Resources

Time and Trees on the Map Land Cover Database 4

Applying the Global Standard FAO LCCS to Map Land Cover of Rural Queensland

Monitoring and Evaluating Land Cover Change in The Duhok City, Kurdistan Region-Iraq, by Using Remote Sensing and GIS

Obtaining and Processing MODIS Data

Estimating Firn Emissivity, from 1994 to1998, at the Ski Hi Automatic Weather Station on the West Antarctic Ice Sheet Using Passive Microwave Data

Myths and misconceptions about remote sensing

GEOENGINE MSc in Geomatics Engineering (Master Thesis) Anamelechi, Falasy Ebere

Effect of Alternative Splitting Rules on Image Processing Using Classification Tree Analysis

3D Model of the City Using LiDAR and Visualization of Flood in Three-Dimension

White Paper. PlanetDEM 30. PlanetObserver 25/11/ Update

Urban Ecosystem Analysis Atlanta Metro Area Calculating the Value of Nature

Aneeqa Syed [Hatfield Consultants] Vancouver GIS Users Group Meeting December 8, 2010

Ocean Level-3 Standard Mapped Image Products June 4, 2010

TerraAmazon - The Amazon Deforestation Monitoring System - Karine Reis Ferreira

Spatial data analysis: retrieval, (re)classification and measurement operations

DETECTING LANDUSE/LANDCOVER CHANGES ALONG THE RING ROAD IN PESHAWAR CITY USING SATELLITE REMOTE SENSING AND GIS TECHNIQUES

CIESIN Columbia University

Cloud detection and clearing for the MOPITT instrument

Coarse Resolution Image Analysis and Cleaning UpCloud Radiation

Object-Oriented Approach of Information Extraction from High Resolution Satellite Imagery

Open-File Report By Daniel H. Knepper, Jr. U.S. Department of the Interior U.S. Geological Survey

Communities, Biomes, and Ecosystems

Remote Sensing and GIS Application In Change Detection Study In Urban Zone Using Multi Temporal Satellite

Analysis of Land Use/Land Cover Change in Jammu District Using Geospatial Techniques

Objectives. Raster Data Discrete Classes. Spatial Information in Natural Resources FANR Review the raster data model

Transcription:

Notice to Data Users: The documentation for this data set was provided solely by the Principal Investigator(s) and was not further developed, thoroughly reviewed, or edited by NSIDC. Thus, support for this data set may be limited. SMEX04 Land Use Classification Data AZ SO Figure 1. SMEX04 Regional Study Areas: Arizona (AZ) and Sonora (SO)

Summary Land cover classification is necessary for modeling and scaling hydrologic variables of concern in the SMEX04 experiment. For the Arizona and Sonora study regions, six Landsat 5 Thematic Mapper TM scenes (Path 35/Row 38-39 for June 11, July 29, and August 30, 2004) were acquired and atmospherically corrected using MODTRAN. Ground truth information collected during the experiment was used for decision tree parameterization. Using these 6 scenes, high accuracy was achieved with respect to the test data set, and high qualitative accuracy was achieved when comparing the land cover to a SMEX04 classification image for the same regions (Yilmaz et al., 2007). Citing These Data The following example shows how to cite the use of this data set in a publication. List the principal investigators, year of data set release, data set title, and publisher. Hunt, Jr., E. R., T. J. Jackson, and M. Tugrul Yilmaz. 2009. SMEX04 Land Use Classification Data. Boulder, Colorado USA: NASA DAAC at the National Snow and Ice Data Center. Overview Table Category Data format 8-bit Spatial coverage Description Binary 32.7 N, 111.4 W to 29.3 N, 108.6 W Temporal coverage June 11 2004, July 29 2004, August 30 2004 File naming convention SMEX04_L File size 100 Parameter(s) MB AND_COVER.bin Land Cover Classification 0 Background 1 Water Body 2 Unvegetated (Bare Soil) 3 Shrubland 4 Grassland 5 Riparian Mesquite 6 Riparian Woodland 7 Sparse Woodland 8 Evergreen (Broadleaf +Needleleaf) 9 Subtropical Shrub 10 Agriculture Procedures for obtaining data Data are available via FTP.

Table of Contents 1. Contacts and Acknowledgments 2. Detailed Data Description 3. Data Access and Tools 4. Data Acquisition and Processing 5. References and Related Publications 6. Document Information 1. Contacts and Acknowledgments: Investigator(s) Name and Title: E. Raymond Jr., Hunt, Physical Scientist, Thomas J. Jackson, Hydrologist, Tugrul Yilmaz, USDA- ARS-Hydrology Lab. Technical Contact: NSIDC User Services National Snow and Ice Data Center CIRES, 449 UCB University of Colorado Boulder, CO 80309-0449 USA phone: (303) 492-6199 fax: (303) 492-2468 form: Contact NSIDC User Services e-mail: nsidc@nsidc.org Acknowledgements: The USDA ARS Southwest Watershed Research Center, the University of Arizona and the many graduate students and volunteers who collected the field data. Funding was provided by NASA grant NNG04GQ426 to Dr. Susan Ustin, University of California. We thank Susan Ustin, Vern Vanderbilt, Charles Fernandez, Alfredo Huete, Ed Glenn, Pam Nagler, Lyssa Goins, John Schroeder, Phil Valco, Dave Darling, Ho-Jin Kim, Pan Sirikul, Young Wook Kim, Lin Li, Jose Ramon, David Riano, Johny Kefauver, Mi-Young Jang, and Rocco Panciera. 2. Detailed Data Description: Format: Data consist of a single 8-bit binary file and an associated header file in ENVI format. File Naming Convention: There are two files: SMEX04_L AND_COVER.bin SMEX04_L AND_COVER.hdr

File Size: File size is approximately 100 MB. Spatial Coverage: Southernmost Latitude: 29.3 N Northernmost Latitude: 32.7 N Westernmost Longitude: 111.4 W Easternmost Longitude: 108.6 W Samples: 8550 Lines: 12171 pixel size 30 meters UTM Coordinates, Zone 12, WGS-84 xmin: 460890 E xmax: 737010 E ymin: 3244404 N ymax: 3619794 N Temporal Coverage: June 11, 2004, July 29, 2004, August 30, 2004, and daily images from interpolation Parameter or Variable: Land Cover Classification 0 Background 1 Water Body 2 Unvegetated 3 Shrubland 4 Grassland 5 Riparian Mesquite 6 Riparian Woodland 7 Sparse Woodland 8 Evergreen (Broadleaf + Needleleaf) 9 Subtropical Shrub 10 Agriculture 3. Data Access and Tools: Data Access: The data are stored in binary format and were generated via IDL/ENVI. A header file is attached with geolocation information. Software and Tools:

Most image software will be able to input the data. 4. Data Acquisition and Processing: Six Landsat TM scenes (June 11, July 29 and August 30, 2004) and one DEM image were used to construct the land cover classification for the SMEX04 Arizona and Sonora study regions. There was very little cloud cover in the June 11, 2004 (<1%), July 29, 2004 (<5%), and August 30, 2004 (<1%) images. 1) Atmospheric Corrections of six TM images were performed using MODTRAN. 2) Ground truth in Arizona and Sonora were collected with WAAS-enabled GPS units (~5m spatial accuracy) and converted to Regions of Interest (ROI). 3) NDVI and NDWI of the Atmospherically-corrected images were calculated using these equations. NDVI NDWI ( band 4) ( band3) and ( band 4) ( band3) ( band 4) ( band5) ( band 4) ( band5) 4) NDVI and NDWI statistics were extracted. 5) Topographic features like slope and maximum curvature were computed (within ENVI) using the DEM image. The original DEM file is in 3 second spatial resolution. In order to get better features, slope and maximum curvature were computed over the original 3 second image and then the image was converted to a 30 meter resolution image. 6) In order to decrease the execution time, some other files were created such as Maximum NDVI, Maximum difference of NDVI, Average NDVI, Maximum NDWI, Maximum difference of NDWI (between June-July-August). 7) By creating an imaginary flora boundary which coincided with the U.S./Mexico border, the natural distinction between subtropical and semi-arid climates can be accounted for. The distraction was based on species differences, because the area was transitional between 2 floristic provinces. 8) A decision tree was constructed for classification (All Nodes and expressions used in the decision tree are given below). 9) The cloud cover is minimal for these scenes and the cloudy pixels were repairable with the other images, hence, a cloud mask was not used for classification.

10) DN values of the Ground truth were calculated over this image and confusion matrix is computed between this image and ground truth. Classified image Table 1. Confusion Matrix Ground Grasslanland Shrub- Riparian Riparian Ever- Agri- Sparse User s Mesquite Woodland green culture Woodland Total Accuracy% Grass 4 19 1 2 26 15.4 Shrub 4 89 2 95 93.7 Riparian Mesquite 1 1 0.0 Riparian Woodland 1 1 0.0 Evergreen 2 2 100.0 Agriculture 1 1 100.0 Sparse Woodland 1 2 2 1 6 Total 9 109 4 2 6 2 0 132 Overall Producer s Accuracy 44.4 81.7 0.0 0.0 33.3 50.0 Accuracy 72.7% Since the number of shrub sites was dominant among that of other sites, the overall accuracy was mainly affected by shrubland. In the same way, since the number of sites sampled as Riparian Mesquite and Riparian Woodland was very low compared with the total number of sites, accuracy of these did not affect the overall accuracy significantly. Decision tree image The 12 variables used in the decision tree for land cover are: Band 1 : DEM image (Digital Elevation Model) Band 2 : Maximum Curvature Image Band 3 : Slope Band 4 : Subtropical-semiarid border Band 5 : NDVI June 11 Band 6 : NDVI July 29 Band 7 : NDVI average Band 8 : NDVI maximum Band 9 : NDVI maximum difference Band 10 : NDWI June 11 Band 11 : NDWI maximum Band 12 : NDWI maximum difference Average NDVI is simply calculated by adding NDVI values of three dates divided by 3 (within ENVI). Maximum NDVI or NDWI is the maximum NDVI or NDWI value of three dates. Similarly, the maximum NDVI or NDWI difference is the maximum NDVI or NDWI increase or decrease over three dates. Also, slope and maximum curvature are created within ENVI by using Topographic modeling tool with a kernel size of 55 pixels.

Decision tree structure Rule 1 Yes Rule 2 No Background (Class 0) Rule 2 Yes Rule 6 No Rule 3 Rule 3 Yes Rule 5 No Rule 4 Rule 4 Yes Unvegetated (Class 2) No Water Body (Class 1) Rule 5 Yes Shrubland (Class 3) No Grassland (Class 4) Rule 6 Yes Rule 10 No Rule 7 Rule 7 Yes Subtropical Shrub (Class 9) No Rule 8 Rule 8 Yes Agriculture (Class 10) No Rule 9 Rule 9 Yes Evergreen (Class 8) No Sparse Woodland (Class 7) Rule 10 Yes Riparian Mesquite (Class 5) No Riparian Woodland (Class 6)

Decision tree rules Rule 1 Band 1 > 200 Rule 2 Band 7 > 0.27 AND [Band 7 > 0.32 OR (Band 6 - Band 5) > 0.195] Rule 3 Band 7 > 0.13 Rule 4 Band 7 > -0.05 Rule 5 Band 7 < 0.22 AND Band9 < 0.08 Rule 6 Band 12 < 0.26 AND Band3 < 5 AND Band 7 <0.53 AND (Band 1 <1550 OR Band 2 <30.3) AND (Band 6-Band 5)<0.20 AND (Band 8-Band 5) < 0.275 Rule 7 Band 4 EQ 1 AND Band 5 < 0.31 AND (Band 6-Band 5) >0.23 AND Band 2 < 30.3 AND Band 7 > 0.40 AND Band 1 < 1550 Rule 8 Band 7 > 0.40 AND Band 1 < 1550 AND Band 3 < 1.5 AND (Band 9 > 0.45 OR Band 8 > 0.80 OR Band 11 > 0.40 OR Band 12 > 0.50) Rule 9 (Band 1 > 2000 AND Band 5 < 0.7 AND Band 10 < 0.23) OR (Band 1 > 1700 AND Band 1 < 2000 AND Band 10 < 0.17 AND Band 7 > 0.40) OR (Band 1 > 1300 AND Band 1 < 1700 AND Band 2 > 30 AND Band 10 > -0.10 AND Band 7 >0.40) Rule 10 Band 10 < 0.04 AND Band 5 < 0.47

5. References and Related Publications: References Yilmaz, M. Tugrul, E. Raymond Hunt, Jr., Lyssa D. Goins, Susan L. Ustin, Vern C. Vanderbilt, and Thomas J. Jackson. 2007. Vegetation Water Content During SMEX04 from Ground Data and Landsat 5 Thematic Mapper Imagery. Remote Sensing of Environment 112: 350 362, doi:10.1016/j.rse.2007.03.029. Related Data Collections: Refer to the USDA SMEX04 Web site for in-depth information on the science mission and goal of the SMEX project: http://hydrolab.arsusda.gov/smex04/. 6. Document Information: Document Creation Date: 18 February 2005