High Resolution Information from Seven Years of ASTER Data



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High Resolution Information from Seven Years of ASTER Data Anna Colvin Michigan Technological University Department of Geological and Mining Engineering and Sciences

Outline Part I ASTER mission Terra spacecraft ASTER sensor Instrument details Sensor specifications Data acquisition Global coverage and on-demand Data products Monitoring of active volcanoes Part II Accessing data products GLOVIS EOS Data Gateway SERVIR/Mesostor TerraLook DataPool

ASTER mission Advanced Spaceborne Thermal Emission and Reflection Radiometer Part of NASA s Earth Observing System (EOS) Joint cooperative mission between Japan (METI and ERSDAC) and US (NASA) Terra satellite Flies aboard Terra platform along with 5 other instruments, including MODIS Terra launched in sun-synchronous Earth orbit in Dec. 1999 ASTER data available since February 2000 to present 16 day repeat cycle Images same point on Earth at same time every day Follows Landsat orbit and has similar spectral resolutions Images courtesty of NASA http://www-misr.jpl.nasa.gov/mission/images/am1_01.jpg

Landsat orbital tracks Jensen, 2004

ASTER orbital tracks Daytime pass Night time pass

ASTER global coverage 1.1 million ASTER scenes collected as of March, 2006 NASA/GSFC/METI/ERSDAC/JAROS, and U.S./Japan ASTER Science Team http://asterweb.jpl.nasa.gov/gallerydetail.asp?name=browse Courtesy of Mike Ramsey

ASTER sensor Global multispectral imaging data 14 bands in visible to thermal infrared portions of the electromagnetic spectrum VNIR, SWIR, TIR telescopes High spatial resolution imagery - Off-nadir pointing capability - Stereo viewing capability to create Digital Elevation Models (DEMs) High spatial resolution thermal infrared imager compare to MODIS, AVHRR (1km/pixel) or GOES (4km/pixel)

ASTER sensor specifications Spectral Resolution VNIR SWIR TIR 3 Bands 6 Bands 5 Bands 0.52-0.86 m 1.60-2.43 m 8.125-11.65 m Spatial Resolution VNIR SWIR TIR 15m 30m 90m Radiometric Resolution VNIR SWIR TIR NE NE NE T 0.5% 0.5%-1.5% 0.3K Temporal Resolution On demand Swath Width 60km Pointing Angle Quantization Level Scanning System VNIR/SWIR TIR VNIR SWIR TIR VNIR/SWIR TIR 8.55 24 8 bit (DN: 0-255) 8 bit (DN: 0-255) 12 bit (DN:0-4095) Along-track (pushbroom) Across-track (whiskbroom)

ASTER and Landsat Spectral Resolutions VNIR Visible to near-infrared SWIR Mid-infrared TIR Thermal-infrared VNIR SWIR TIR 15 m 30m 90 m ASTER Terra Landsat 5, 7 TM, ETM+ B G R NIR PAN Landsat ETM+ 7 15 m 30m MIR.4.5.6.7.8.9 1.0 1.5 1.6 1.7 1.8 2.0 2.1 2.2 2.3 2.4 2.5 8.0 9.0 10.0 11.0 12.0 13.0 MIR Wavelength (micrometer) TIR TM 120 m ETM+ 60 m

ASTL1B: Arenal volcano, 25 March 2003 VNIR Bands 3,2,1 SWIR Bands 7,4,5 TIR Band 13 15 m/pixel 30 m/pixel 90 m/pixel

Data Acquisition ASTER is scheduled (unlike other sensors) Global mapping: 25% resources - Entire Earth land surface Regional Monitoring (STAR): 50% resources Local Observations (DAR): 25% resources Prioritization of targets and detailed scheduling required to increase the lifetime of the instrument Requests reviewed by NASA s ASTER User Authorization Committee, prioritized by urgency and significance, and scheduled on calendar http://asterweb.jpl.nasa.gov/gettingdata/calendar.asp STAR (Science Team Acquisition Request) submitted by ASTER Joint Science Team Members only long-term global research e.g. mountain glaciers, active volcanoes, ecological research DAR (Data Acquisition Request) Submitted by authorized individual ASTER users Up to 10 scenes per DAR URGENT request option Individual science research e.g. land use, geological features, volcanoes, floods, fires

Data Products L1A Routine image data without radiometric or geometric corrections SWIR bands are unregistered Requires significant pre-processing L1B Routine image data with radiometric and geometric corrections All bands are registered Swath-oriented projection Resampling with cubic convolution (daytime images) and nearest neighbor (nighttime images) Universal Transverse Mercator (UTM) map projection Level 2 Higher-level products created from L1B data Products are created on-demand Level 3 ASTER DEM s created from L1A data

L1A ASTER SWIR Data (Pacaya V.) Courtesy of Mike Ramsey

L1B ASTER SWIR Data (Pacaya V.) Courtesy of Mike Ramsey

Data Products: Level 2 Prod. ID Name Units Accur. (abs) Accur. (rel) Res. (m) AST_04 Brightness temp. C 1-2 C 0.3 C 90 AST_05 Surface emissivity none 0.05-0.1 0.005 90 AST_06 Decorrelation stretch none N/A N/A 15, 30, 90 AST_07 Surface reflectance none 4% 1% 15, 30 AST_08 Surface kinetic temp. K 1-4 K 0.3 K 90 AST_09 Surface radiance (VNIR, SWIR) W/m 2 sr µm 2% 1% 15, 30 AST_09T Surface radiance (TIR) W/m 2 sr µm 2% 1% 90 AST_13 Polar cloud classification none 3% 3% 15, 30, 90 AST_14 Digital elevation model (DEM) m 7m 10m 15,30 Courtesy of Mike Ramsey

Monitoring of active volcanoes Unique ASTER capabilities and data products allow for spatial and temporal monitoring of active volcanoes: 1. Routine nighttime observations much more data in TIR and SWIR (active sources) than Landsat ETM+ for thermal radiance detection 2. Off-nadir pointing ability to have 1-2 scenes/day temporal frequency 3. Multiple dynamic ranges minimizes data saturation (loss) 4. Many multi-spectral bands Spectral libraries for mineral identification 5. Multi-spectral thermal IR Critical for better temperature, chemical & textural measurements 6. Digital elevation models (DEMs) Volume change detection and effusion rates

Routine nighttime observations Klyuchevskoy Volcano Courtesy of Mike Ramsey Soufrière Hills Volcano

Dynamic Range 19 Feb 2004, 23:10UTC AQUA MODIS daytime visible 250m 24 Feb 2004, 08:16 UTC ASTER Night time TIR temperature on VNIR 5km Courtesy of Mike Ramsey

Digital elevation models (DEMs) Pacaya Band 3N Band 3B Courtesy of Mike Ramsey

DEM eruption rates Courtesy of Kelly Durst, MTU

Accessing Data Products Level 1 data are processed by Japanese Ground Data System (GDS) and archived in EOS-HDF format at Land Processes Distribution Active Archive Center (LPDAAC) at the USGS EROS Data Center (EDC). Browse images online: - USGS Global Visualization Viewer (GLOVIS): http://glovis.usgs.gov/ User friendly interface, but does not always have a complete record - University of Pittsburgh s ASTER Scene Locator: http://aster.eps.pitt.edu/ Order products: EOS-Data Gateway: http://elpdl03.cr.usgs.gov/pub/imswelcome/ Previewing images possible but slow All L1A, L1B and higher-level products are US$80 for ASTER users and free of charge for Science Team Members and other approved investigators, e.g. government agencies, educational institutions, private commercial sector.

Accessing Data Products Free ASTER data: SERVIR: http://servir.nsstc.nasa.gov/index.html Select L1A data Central American coverage Spanish or English options TerraLook: http://edc2.usgs.gov/terralook/index.php Natural color JPEGS of select L1B data Global coverage DataPool at LPDAAC: http://edcdaac.usgs.gov/datapool/datapool.asp Rolling archive of L1B data from the last 2 years US coverage

GLOVIS (Global Visualization Viewer)

Earth Observing System-Data Gateway

acquisition date processing date AST_L1A#003mmddyyyyhhmmss_mmddyyyyhhmmss.hdf

Daytime image: VNIR, SWIR, TIR

Done!

SERVIR

Many data sets available!

Conclusions ASTER sensor Unique senor for observing volcanoes High spatial and spectral resolution imagery Post-eruption imaging Data products Excellent documentation available on ASTER website: http://asterweb.jpl.nasa.gov/documents.asp ASTER User Handbook Level 1 User's Guide ASTER Higher-Level Product User Guide Data acquisition User-friendly interfaces Free data sources