An Improved Algorithm of Wildfire Detection and a Method of Wildfire Observation for Validation Koji Nakau Ph.D (JAXA/EORC) Masami Fukuda Ph.D (Fukuyama.

Slides:



Advertisements
Similar presentations
Collection 6 Aerosol Products Becoming Available
Advertisements

Center for Satellite Applications and Research (STAR) Review 09 – 11 March 2010 Image: MODIS Land Group, NASA GSFC March 2000 A Cloud Object Based Volcanic.
1 1. FY09 GOES-R3 Project Proposal Title Page Title: Trace Gas and Aerosol Emissions from GOES-R ABI Project Type: GOES-R algorithm development project.
Lightning Imager and its Level 2 products Jochen Grandell Remote Sensing and Products Division.
Extension and application of an AMSR global land parameter data record for ecosystem studies Jinyang Du, John S. Kimball, Lucas A. Jones, Youngwook Kim,
This document is proprietary. Any dispatch or disclosure of content is authorized only after written authorization by MEEO S.r.l. 1 PM MAPPER®: An air.
VIIRS LST Uncertainty Estimation And Quality Assessment of Suomi NPP VIIRS Land Surface Temperature Product 1 CICS, University of Maryland, College Park;
Retrieval of smoke aerosol loading from remote sensing data Sean Raffuse and Rudolf Husar Center for Air Pollution Impact and Trends Analysis Washington.
Remote sensing in meteorology
Transitioning research data to the operational weather community Use of VIIRS DNB Data to Monitor Power Outages and Restoration for Significant Weather.
Precision Agriculture in Environmental Sustainability Rachel Crocker.
Modeling Digital Remote Sensing Presented by Rob Snyder.
Using Impervious Surface as a spatially explicit Proxy Measure of CO 2 Emssions Dr. Paul C. Sutton Dr. Sharolyn Anderson Dr. Sharolyn Anderson Department.
Using Impervious Surface as a spatially explicit Proxy Measure of CO 2 Emssions Dr. Paul C. Sutton Department of Geography University of Denver AAG presentation.
Christelle Michel (1,2) Jean-Marie Grégoire (3), Kevin Tansey (3), Catherine Liousse (1) (1) Laboratoire d’Aérologie UMR 5560 CNRS/UPS, Observatoire Midi.
Earth MONITORING and DISASTER WARNING WG Natural Resource Area Report APAN Conference 2002 Phuket, Thailand 23 rd -24 th January 2002.
U C S B GEOGRAPHY 8/6/2001NCRST Building A Global Road Database? Possibilities and Techniques for Mapping Rural Roads Chris Funk.
Cooperative Institute for Meteorological Satellite Studies University of Wisconsin - Madison Steve Ackerman Director, Cooperative Institute for Meteorological.
Fire Products Training Workshop in Partnership with BAAQMD Santa Clara, CA September 10 – 12, 2013 Applied Remote SEnsing Training (ARSET) – Air Quality.
Dr. Sarawut NINSAWAT GEO Grid Research Group/ITRI/AIST GEO Grid Research Group/ITRI/AIST Development of OGC Framework for Estimating Near Real-time Air.
Satellite Imagery ARSET Applied Remote SEnsing Training A project of NASA Applied Sciences Introduction to Remote Sensing and Air Quality Applications.
Visible Satellite Imagery Spring 2015 ARSET - AQ Applied Remote Sensing Education and Training – Air Quality A project of NASA Applied Sciences Week –
Introduction Land surface temperature (LST) measurement is important for understanding climate change, modeling the hydrological and biogeochemical cycles,
Use of Remote Sensing Data for Delineation of Wildland Fire Effects
Satellite Imagery and Remote Sensing NC Climate Fellows June 2012 DeeDee Whitaker SW Guilford High Earth/Environmental Science & Chemistry.
1 FIRE DETECTION BY SATELLITE FOR FIRE CONTROL IN MONGOLIA Global Geostationary Fire Monitoring Workshop on March, 2004 Darmstadt Germany S.Tuya,
MODIS: Moderate-resolution Imaging Spectroradiometer National-Scale Remote Sensing Imagery for Natural Resource Applications Mark Finco Remote Sensing.
Photo: © Matthew J. Roberts. Eyjafjallajökull ash cloud 17 April Flight with the Icelandic Coast Guards.
Japan Aerospace Exploration Agency 1 Japan’s Contribution to GEO-Netcast and Sentinel-Asia GEO Architecture and Data Committee July 2006 Boing Kent.
Developing a High Spatial Resolution Aerosol Optical Depth Product Using MODIS Data to Evaluate Aerosol During Large Wildfire Events STI-5701 Jennifer.
Biomass burning emission inventory from a satellite based approach: the ACE-Asia case study Christelle Michel (1) Jean-Marie Grégoire (2), Kevin Tansey.
Christine Urbanowicz Prepared for NC Climate Fellows Workshop June 21, 2011.
May 16-18, 2005MultTemp 2005, Biloxi, MS1 Monitoring Change Through Hierarchical Segmentation of Remotely Sensed Image Data James C. Tilton Mail Code 606*
Remote Sensing. Vulnerability is the degree to which a system is susceptible to, or unable to cope with, adverse effects of climate change, including.
1 1. FY08 GOES-R3 Project Proposal Title Page  Title: Hazards Studies with GOES-R Advanced Baseline Imager (ABI)  Project Type: (a) Product Development.
1 GOES-R AWG Product Validation Tool Development Aviation Application Team – Volcanic Ash Mike Pavolonis (STAR)
HDF-EOS at NOAA/NESDIS NOAA / NESDIS / ORA orbit-net.nesdis.noaa.gov/arad2/MSPPS Huan Meng, Doug Moore, Limin Zhao, Ralph Ferraro NOAA / NESDIS.
Satellite Imagery and Remote Sensing DeeDee Whitaker SW Guilford High EES & Chemistry
Daily Inventory of Biomass Burning Emissions using Satellite Observations and Using Satellite Observations of CO from MOPITT Colette Heald Advisor: Daniel.
Towards retrieving 3-D cloud fractions using Infrared Radiances from multiple sensors Dongmei Xu JCSDA summer colloquium, July August
Terra Launched December 18, 1999
EG2234: Earth Observation Interactions - Land Dr Mark Cresswell.
2005 ARM Science Team Meeting, March 14-18, Daytona Beach, Florida Canada Centre for Remote Sensing - Centre canadien de télédétection Geomatics Canada.
Estimating the radiative impacts of aerosol using GERB and SEVIRI H. Brindley Imperial College.
Satellite Imagery Another type of “remote sensing” observation.
Satellite Imagery ARSET - AQ Applied Remote SEnsing Training – Air Quality A project of NASA Applied Sciences NASA ARSET- AQ – EPA Training September 29,
Satellite Active Fire Product Development and Validation: Generating Science Quality Data from MODIS, VIIRS and GOES-R Instruments Wilfrid Schroeder 1,
MODIS Snow and Sea Ice Data Products George Riggs SSAI Cryospheric Sciences Branch, NASA/GSFC Greenbelt, Md. Dorothy K.
Systematic Terrestrial Observations: a Case for Carbon René Gommes with C. He, J. Hielkema, P. Reichert and J. Tschirley FAO/SDRN.
EUMETSAT 2004, March 24 th Earth Observation Dep.t Automatic Fire Detection and Characterization by MSG/SEVIRI A. Bartoloni, E. Cisbani, E. Zappitelli.
Some thoughts on the validation of fire products Ivan Csiszar UMd.
Validation and comparison of Terra/MODIS active fire detections from INPE and UMd/NASA algorithms LBA Ecology Land Cover – 23 Jeffrey T. Morisette 1, Ivan.
Retrieval of biomass burning aerosols with combination of near-UV radiance and near -IR polarimetry I.Sano, S.Mukai, M. Nakata (Kinki University, Japan),
Quantifying methane emissions from North America Daniel Jacob with Alex Turner, Bram Maasakkers, Jianxiong Sheng, Melissa Sulprizio.
An Overview of Satellite Rainfall Estimation for Flash Flood Monitoring Timothy Love NOAA Climate Prediction Center with USAID- FEWS-NET, MFEWS, AFN Presented.
Terrestrial ECVs Fire/burnt area, Land cover, Soil Moisture.
Rationale for a Global Geostationary Fire Product by the Global Change Research Community Ivan Csiszar - UMd Chris Justice - UMd Louis Giglio –UMd, NASA,
A Brief Overview of CO Satellite Products Originally Presented at NASA Remote Sensing Training California Air Resources Board December , 2011 ARSET.
Fire Products NASA ARSET-AQ Links Updated November 2013 ARSET Applied Remote SEnsing Training A project of NASA Applied Sciences.
CMUG meeting – March 2016 Fire_cci phase 2 progress. Interactions with other ECVs Phase 2 of the Climate Change Initiative Fire_cci project Emilio.
Satellite Imagery and Remote Sensing DeeDee Whitaker SW Guilford High EES & Chemistry
Japan’s Contribution on GHG announced at COP-22 Side Event
Mapping Vegetation with Synthetic Aperture Radar:
Colour air photo: 15th / University Way
UNFCCC and IPCC Engagement Status
Igor Appel Alexander Kokhanovsky
Class Project for Ian Mullet
Igor Appel TAG LLC, Washington, USA
Department of Geography
Forest / Non-forest (FNF) mapping for Viet Nam using PALSAR-2 time series images 2019/01/22 Truong Van Thinh – Master’s Program in Environmental.
Presentation transcript:

An Improved Algorithm of Wildfire Detection and a Method of Wildfire Observation for Validation Koji Nakau Ph.D (JAXA/EORC) Masami Fukuda Ph.D (Fukuyama City Univ.) Hiroki Eto (Japan Airlines Co., Ltd.) 1

Importance of Satellite Infomation on Wildfire Importance of Wildfire –Environment: Severe impact on ecology, Soil or Peat –Climate: Non-negligible GHGs emission –Disaster: Needs for saving life, welth and society Roles of Satellite imagery for Wildfire –Information for Fire Service for Efficient activity –High resolution is demanded for judge accessbility. –Map or image are not distributable in developping countries. –More verbal information is demanded. –Fire is small and rare event Getting ground based validation data is not so easy Especially comparison with observation by human eyes

Aim of This Research Improve fire detection algorithm –To improve, not detected fire is important Observe wildfire from cockpit –Air carrier can ovserve wide area everyday Utilization of future sensors –SGLI (Second generation Global Imager) –CIRC(Compact InfraRed Camera) 3

JAXA’s Activity Related to this Research 4 Fire Suppression Data Providing Fire Detection Validation Data Fire Detection Algorithm Sentinel Asia JICA-JST AFS JAL Fire Obs. AFS Fire Info Wild Fire Monitor System JICA-JST Throughout from Algorithm to Social Implementation Observ.  Algorithm  System  Social Impr. GCOM-C MODIS Astronaut ? JASMES Fire Location in AK Fire Location in INA Observation by human eye High res. Thermal IR sensor Fire Suppression in AK Fire Suppression in Indonesia Distribute Disaster Infomation Global Wildfire Detection

Wildfire Detection Algorithm 5

Approach to Detect Fire 6 We need to estimate radiation from fire to detect fire. Radiation from Fire Emission from Background Reflectance of Background Total Radiance of Satellite Observation What we need is Radiation from Fire Estimated by Thermal Infrared Estimated by SWIR Rad BG.Ref Rad BG.Ems Rad Fire 4  m Rad 4  m

Distribution of Hotspots 7

Result of Fire Detection  Algorithm developed  Reflection from background land cover considered ▪Ancillary algorithms are improved ; Cloud cover, Snow mask  Doubled S/N ratio (comparing to MOD14) ▪80% more HS & 10% less False Alarm (2004 AK day MODIS) ▪Smoldering, small fire or slush and burn  Different Geographical Distribution  Next Step  Validation  Detect Smoldering (smoldering is not detected) 8

Wildfire observation by JAL pilots 9

Procedure of wildfire observation by JAL pilots When finding a wildfire, a pilot send a report to ground staff. This report is stored in database. Including location of aircraft, distance to wildfire and others. Authors estimated the location of wildfire using this report. However, utilization of these report does not go straight. –location is not so relyable Extraction of relyable location from reports needed. A pilot send a report to ground staff Ground staff input on the web form Data baseValidation

Sample of observed wildfire 11

Estimating fire location from a fire report by pilot 12 Airway

Wildfire reports in 2010 Wildfire observation in 2011 in Russia

Result of wildfire observation Total 990 reports are submitted from pilots in these 8 years. We needed trial and error to utilize this data. Therefore, analysis is still undergoing. Year Duration JPN–EUR/America daysreport Jun - 31 Jul May - 31 Jul May - 5 Aug Jun - 12 Aug Jun - 12 Sep Jun - 12 Sep Jun - 1 Sep Jul ~ 27 Sep 6251

Wildfire on 07 Aug 15

Wildfire on 07 Aug (with MODIS visible RGB on 07 Aug) 16

Wildfire on 07 Aug (with RGB=MODIS:4  m/2.2  m/1.2  m on 07 Aug) 17

Wildfire on 07 Aug (with RGB=MODIS:4  m/2.2  m/1.2  m on 07 Aug) 18

Fraction of detection by satellite for observed fire 19 Location of observation is not so accurate. –# of fail to detect may include such an error Overwrapped fire location might be relatively reliable. – previous slide is an example

Summary Proposed algorithm performed better –For the observed fire by JAL Reliable observed fire location extracted –Observed fire pixel failed to detect by satellite will be extracte based on this method.

Utilization of future sensors SGLI (Second generation Global Imager) CIRC(Compact InfraRed Camera) 21

CIRC/CALET on JEM/ISS FY2013 Swath : 80km Resolution : 115m SGLI on GCOM-C1 FY2015 Swath : 1150km Resolution : 250m CIRC on ALOS-2 FY2013 Swath : 130km Resolution : 200m Integrative Analysis of middle-high resolution IR sensor datasets. Submitting the latest fire fighting aid data JAXA’s sensors to be available for wildfire Collaboration with UNIFORM

MODIS CIRC (simulated from TM) Locations of burning fire can be identified as. SGLI (250m) + CIRC (115m) for accurate fire location 現在主流の MODIS では、 場所が 1km 単位でしか 分からない Hotspot by MODIS

Summary Importance of Wildfire Management –Fire emit ¼ to ½ as much as GHG by human JAXA Wildfire Monitoring –JAXA will launch several sensors available for wildfire monitoring from FY2013 –Algorithm with better performance Wildfire observation by JAL –990 ovservation has reported. –Reliability of location is improving –Identified fire pixels failed to detect fire