National Infrared Operations (NIROPS) Program Overview. Tom Mellin National Infrared Program Manager

Similar documents
Overview of Federal Wildfire Remote Sensing Support 2018

Enhancing our Nation s Wildfire Management Capabilities Through Application of NASA Science and Technology

ALBERTA FOREST PROTECTION THERMAL INFRARED PROGRAM

Presentation Outline

Use of new spatially refined satellite remote sensing fire detection data in support of advanced wildfire mapping and modeling

Development of a Canadian Wildland Fire Monitoring Sensor (CWFMS)

Wildfire Mapping Using FireBIRD Data

Global fire hotspots detected by NASA satellite to help United Nations

Colonel Paul Hargrove

Verification and Validation of OOV-TET1 Multispectral Camera Observations within the FireBIRD Project

Observations of the Coulson Martin Mars and FireWatch 76 Operations on the 2011 Wildfires in Mexico. Jim Thomasson Contract Report CR-TBD

DFPC s Toolbox. Colorado Fire Prediction System (CO-FPS)

Bringing Smarts to Methane Emissions Detection

S-NPP/VIIRS and Landsat-8/OLI Global Active Fire Data Sets

As agreed to by the members of the Routt County Multi-Agency Coordinating (MAC) Advisory and Policy Groups on March 15, 2018.

How SWIR Imaging contributes to the optimization of automatic quality control in the food industry

Project Report. Infrared Field Users Guide and Vendor Listings. Liaison and Special Projects. Fire and Aviation Management.

ForestWatch. Oregon. Click to edit Master subtitle style. KEY Features 09/05/10

USDA Forest Service Fire Remote Sensing Program Update. Everett Hinkley/Brad Quayle

From Marine Pollution to Inland. Wildfire Mapping

Infrared Business Tips & Insight

DETECTION AND MONITORING OF ACTIVE FIRES USING REMOTE SENSING TECHNIQUES

Methane to Markets Oil and Natural Gas Technology Transfer Workshop

Fire Information for Resource Management System (FIRMS)

the EU-Japan Support Mission in the Space Sector

About HGH Systemes Infrarouges About HGH

DS-2TD Thermal & Optical Network Bullet Camera

Totally Wireless Video Security

Base and Deployable Automated Video Surveillance Systems

LVSS FLIR LIGHTWEIGHT VEHICLE SURVEILLANCE SYSTEM

GOFC/GOLD Fire IT Strategic Planning. Day 1 - Break Out Group Discussion

Interim evaluation of the New IR Sensor Technology (NIRST) as a wildfire monitoring tool

Application Note. Which characterization method is best for your application? The Future of Thermal Imaging is Here!!!

The FireBird mission - a scientific mission for Earth observation and hot spot detection

Fire Detection and Monitoring

DEVELOPMENT OF THE INFRARED INSTRUMENT FOR GAS DETECTION

1.1. SYSTEM MODELING

HeliTAWS. The Pilot s Low-Level Hazard Avoidance System 2/1/12 1

CDF GREEN SHEET. California Department of Forestry and Fire Protection SOUTHERN REGION CA-RSS000077

Radar technology in surveillance

FIREFIGHTING RESOURCES OF CALIFORNIA ORGANIZED FOR POTENTIAL EMERGENCIES

Colorado Division of Fire Prevention and Control. Colorado Counties Inc. June 5, 2018

Threat Warning System

RON ROBERTS SUPERVISOR, FOURTH DISTRICT SAN DIEGO COUNTY BOARD OF SUPERVISORS

NFPA s Standards Development Process

ROBOTICS OPERATORS FOR IECEX/ATEX OPERATION

EMERGENCY SUPPORT FUNCTION #4 FIREFIGHTING

VIIRS FIRE PRODUCTS UPDATE

A Data Set for Fire and Smoke Model Development and Evaluation-- RxCADRE

THE NORTHSTAR SYSTEM: A NEW ERA IN EARTH OBSERVATION

BCGEU JOB DESCRIPTION MINISTRY OF FORESTS

Effective Deployment of the Integrated Wireless Network Video Systems for the Homeland Security & Government Sectors

Wildland Fire Air Quality Response Program

Office of Nonproliferation and Verification Research and Development University and Industry Technical Interchange (UITI2010) Review Meeting

T2SL technology for Mid-IR detectors

FireWatch: A Citizen s Guide to Wildfire Suppression Monitoring

Centers for Regional Excellence. Downriver Fire Authority. Organization Committee Objective. Operations Committee Report 2007

Coal Pile Fire Monitoring System

Presentation Title October 18, Physical Sciences Inc. 20 New England Business Center Andover, MA Outline

Airborne Imagery Potential Role in Monitoring Climate Change

Application of the FireMapper Thermal-Imaging Radiometer for Wildfire Suppression

TARSIER FOD DETECTION SYSTEM TARSIER AUTOMATIC RUNWAY FOD DETECTION SYSTEM

Results on verification and validation of OOV-TET1 multispectral camera observations within the FireBIRD project

MULTI-SPECTRAL INTRUSION SOLUTION

SIGNALS TO AIRCRAFT CHAPTER General

Technological developments in infrared imaging: a fast growing market Dr. François Simoens, CEA-Leti, Marketing & Strategy Manager

Dräger UCF 7000 Thermal Imaging Camera

University of Puerto Rico at Mayagüez Direct Broadcast Polar Orbiter Workshop

The Firefighters Perspective

DATA CENTER SECURITY. March 2017 Anton Panaitescu

Rapid Prototyping of NASA Next Generation Sensors for the SERVIR System of Fire Detection in Mesoamerica

Wildfire detection in western Canada: trends and innovations

GULFSTREAM G650 AIRCRAFT SPECIFICATIONS SERIAL NO: 6258

Office of Nonproliferation and Verification Research and Development University and Industry Technical Interchange (UITI2011) Review Meeting

Powered by HERE IS THE SOLUTION FOR YOUR NEEDS TRANSPORT SECURITY SOLUTIONS

T Mirror Cooling Specifications & Design Revision: -

Recent Developments and Prospects for Innovative Remote Sensing of High-Temperature Events and Vegetation Fire Impacts

How the People Counter Works. Enhanced Safety, Security and Building Automation, and Improved Marketing Intelligence. 3D MLI Sensor Technology

ND280 Construction Status Report

The Apogee Scientific. Advanced Leak Detection Technology

Portable Perimeter Detection and Monitoring System - PoPDaMS

Strategic Research Agenda for. High-Altitude Aircraft and Airship. Remote Sensing Applications

AVIATION TECHNOLOGY SERVICES: PIPELINE LEAK DETECTION

1999 Citation X LEFLIGHT AVIATION, LLC - MR. HARRISON LEFRAK. s/n Reg. N868DM PREPARED EXCLUSIVELY FOR

SEE THROUGH SMOKE FROM EVERY ANGLE. FLIR Handheld, Mounted, and Aerial Thermal Imaging Cameras for Firefighting

Wildland fire phenomenology experiments:

A Novel Approach for a Hostile Arms Fire Sensor

CO 2, CH 4 and CO Observa0ons from CrIS on S-NPP and JPSS-1

There are various resources and toolkits available to perform this task.

WIRELESS CCTV. Site Security & Surveillance.

MATLAB & Simulink for Cyber Physical Systems

Optech Thermal IR Sensing Solutions Expanding the Industry

Case Study of the Modified Fire Suppression Option: Three 1997 Alaska Fires 1

ONDULUS IR SIMULATION MATERIALIZE. CUSTOMIZE. SIMULATE

Aerial Urban Fire Suppression. Information proprietary to Simplex Aerospace and shall not be copied without express permission from Simplex

Technology Today. Raytheon s Command, Control, Communications and Intelligence Core Market Delivering Operational Advantages for Our Customers

WG Entire Truck & Cargo X-Ray Scanning Portal

Flint Canyon. September 6, 2012 Wildland Fire Investigation Report. 1 P a g e. Flint Canyon Fire Investigation Report

ELECTRONICS & DEFENSE NEW EUROFLIR TM 410. Extend your mission, Reveal the unseen

Aetos Overview. Mistras Internal and External Customers 03/27/2017 R1.4 D E L I V E R I N G A S S E T P R OT EC T I O N S O LU T I O N S GLO BALLY

Transcription:

National Infrared Operations (NIROPS) Program Overview Tom Mellin National Infrared Program Manager

Topics NIROPS organization Phoenix imaging system Aircraft Data delivery to infrared interpreters IRIN functions Product delivery to incident Image examples Future developments

National Infrared Operations (NIROPS) Headquartered at National Interagency Fire Center (NIFC) and consists of Phoenix Imaging Systems & IR techs (FS) Planes & Pilots (FS) Infrared Interpreters (Interagency)

Geographic Area Coordination Centers and GACC IR Liaisons Northern R: Lee Werth Rocky Mtn: Melinda McGann Bob Malcolm Southwest: Tom Mellin Great Basin: Hope Spriggs CA N/S: Kyle Felker Northwest: Jim Grace Southern: Scott Wilkinson Eastern: Liz McNichols Alaska: TBD

PHOENIX System Installation Phoenix is a digital image processing system coupled with a dual channel line scanner

WHY IR LINE SCANNERS? Cover extremely large areas in a very short period of time Line scanners are extremely accurate (depending on processing system) Can detect very small fires (While simultaneously) Mapping very large areas Timely delivery

PHOENIX System Specifications Two channel thermal IR line scanner 3-5 μm band for intense heat 8-12 μm band for background terrain 1.25 milliradian IFOV 3.8 meter pixel at NADIR, 10,000 feet AGL 120 0 FOV 6 mile swath at 10,000 feet AGL 1680 pixels per scan line 200 scan lines per second Digital image processing system 256 gray scale (256 th pixel is colored red)

Aircraft: Dedicated to IR use from April-November 144Z Cessna Citation Bravo 149Z Beechcraft 200 Super King Air National resource, can cover multiple incidents in multiple states

IR Data delivered from plane raw tiff Orthocorrected tiff w/ fire detects Orthocorrected color tiff Waldo Canyon Fire June 25, 2012, 2253 hrs

IR Data delivered from plane (cont.) dumb reduced resolution jpeg mosaic of all runs Waldo Canyon Fire June 25, 2012, 2253 hrs Heat detect point shapefile

Mid IR LWIR KA-B MODVOL KA-B Detection Concept A = Mid IR (3-5 µm) B = LWIR (8-12 µm) 12.5 ft Pixel 0 Deg. C Terrain 10 Inch Square 600 Deg. C Fire 100 Deg. C Asphalt Courtesy John Green, Argon ST

AIRCELL System Imagery delivered to NIFC ftp site via AIRCELL system Aircell is the company that provides in-flight Internet for commercial airlines ( GoGo ). N149Z and N144Z have the business aviation systems; a Wi-Fi hotspot in the sky Either as WinZip archive or FreeArc compressed archive (.exe) Corded SIP Handset (for maintenance ONLY) Wired Ethernet (optional) 9 WiFi Antennas AACU GPS/PCS Antenna ACPU CWAP ABS Antennas NIFC ftp site

AIRCELL System Advantages Fewer takeoffs and landings resulting in less spent fuel per mission and less maintenance. Safer flights due to fewer landings late at night into uncontrolled dark airports. Late night drives to pick up data by Interpreters eliminated. Less time wasted doing ftp uploads since data transfer is almost in real time from aircraft. Data arriving at NIROPS web site earlier in the mission allowing faster product delivery to incident. Less expensive than satellite based systems.

2011 NIROPS coverage N144Z 306 requests filled in 2011 (2010 142 filled, 2007 633 filled) N149Z 346 requests filled in 2011 (2010 197 filled, 2007 849 filled)

2012 NIROPS coverage (as of Aug 7) N149Z - 230 requests filled N144Z - 257 requests filled

Phoenix data in WinZip archive Aircell Remote IRIN Support: One IRIN, Multiple Fires Interpreter(s) located at duty station NIFC ftp site Incident NIFC ftp site

IRIN Pods Multiple IRINs at a single location central to multiple incidents If working in a pod A lead IRIN is assigned Each interpreter usually responsible for multiple fires, depending on size and complexity Improved coordination and flexibility Good example Redding pod from 2008

Roles and Responsibilities of the Infrared Interpreter Primary Objectives: Quality Control of thermal imagery Determine heat perimeter Identify areas of heat and isolated heat sources Calculate acreage of the perimeter Produce shapefiles, summary map(s) and log

IR Team Coordination IC NICC COD Fixed Wing Aircraft Desk GACC Fixed Wing Aircraft Desk Local/Expanded Dispatch Planning Section Chief Regional IR Coord. Situation Unit Ldr. National IR Coord. IR Interpreter IR Aircraft & Crew

Products Delivered to Incident daily Shapefiles, map, kmz, log

Aircraft vs. IRINs NIROPS aircraft are a national resource that can support multiple fires in multiple GACCs NOT assigned to the fire Fires receive the service IRINs are a single resource (overhead) that can support one or more fires Can be assigned to a Fire OR can be assigned to a GACC or Area Command to support multiple fires (usually as a member of a pod )

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Wallow Fire Growth, 5/30 6/8, 2011

Whitewater and Baldy Fires become Whitewater-Baldy Fire, 5/22-23, 2012

Whitewater and Baldy Fires become Whitewater-Baldy Fire, 5/22-23, 2012

Wolf Den Fire 7/5/12

Wolf Den Fire 7/5/12

Wolf Den Fire 7/5/12

Future developments Integration of AMS on FS plane Autonomous Modular Sensor transferred to FS by NASA AMS Wildfire Sensor Band Wavelength m 1 0.42-0.45 2 0.45-0.52 (TM1) 3 0.52-0.60 (TM2) 4 0.60-0.62 5 0.63-0.69 (TM3) 6 0.69-0.75 7 0.76-0.90 (TM4) 8 0.91-1.05 9 1.55-1.75 (TM5) 10 2.08-2.35 (TM7) 11 3.60-3.79 (VIIRS M12) 12 10.26-11.26 (VIIRS M15)

Future developments (cont.) Wide Area Imager (WAI) Development funded by NASA SBIR project Operational Airborne prototype delivered by John Green (Xiomas) Testing over fires this summer Different concept/same result as Phoenix Cover 16 mile swath with same resolution as Phoenix system using step stare mirror with high resolution frame grabbing cameras Dual band MWIR and LWIR camera and color infrared camera Near real-time image classification and orthorectification

MWIR Mosaic and some zooms

Future developments (cont.) 3 rd existing FS aircraft for sensor deployment Testing and operational platform for various sensors including Phoenix system, AMS, WAI, etc. Would help maintain NIROPS coverage if one plane was down for extended time or Provide improved coverage during times of high fire activity and/or geographically separated fires

Questions? Tom Mellin National IR Program Manager (505) 842-3845 tmellin@fs.fed.us