Sensor Grand Challenges: An NVESD Perspective

Similar documents
A Novel Approach for a Hostile Arms Fire Sensor

Force Protection Joint Experiment (FPJE) Battlefield Anti-Intrusion System (BAIS) Sensors Data Analysis and Filtering Metrics

Room Temperature MWIR FPAs: Return of the Lead Salts?

FIRE PROTECTION FOR. Dist A. MILITARY GROUND VEHICLES. Steve McCormick US Army RDECOM-TARDEC.

ARMY RDT&E BUDGET ITEM JUSTIFICATION (R-2 Exhibit)

ECBC SBIR/STTR Projects. ECBC SBIR/STTR MSCoE STRF Conference

Direct measurement of the aerosol absorption and extinction cross section for a variety of chemical and biological simulants in the LWIR

Vision Protection From Lasers Overview for Dr. Beagley, Australia

DURIP: Fast Oscilloscope and Detectors for Air Laser Research

REPORT DOCUMENTATION PAGE

Threat Warning System

Science Applications International Corporation McLean, Virginia

Unattended Radiation Sensor Systems for Remote Terrestrial Applications and Nuclear Nonproliferation

The Conservation Fund The Center for Conservation and Development

Novel Sensor Miniaturization Methods

Low Impact Development at Naval Facilities: Opportunities and Constraints

Unattended d Ground Sensor. Memphis Center for Advanced d Sensors. Alfredo Ramirez Eddie L. Jacobs

Converting Existing Copper Wire Firing System to a Fiber-Optically Controlled Firing System for Electromagnetic Pulsed Power Experiments

MINIMUM PERFORMANCE REQUIREMENT FOR AIR FORCE FLIGHTLINE FIRE EXTINGUISHERS:

Distribution Restriction Statement

Industrial Workshop Gettysburg, PA February 26, 2004

Advances in Multisensor Mine Detectors. A presentation for the UN Workshop, GICHD Geneva, February 2006

Architectural and Engineering Specification for a Fiber Optic Perimeter Intrusion Detection System. FiberPatrol FP1100X

QRs GUN-SHOT DETECTION SYSTEM (GDS)

HALON FLIGHTLINE EXTINGUISHER EVALUATION: DATA SUPPORTING STANDARD DEVELOPMENT [INCLUDES NOVEMBER 2007 ADDENDUM]

FORCED AIR CONVECTION THERMAL SWITCH CONCEPT FOR RESPONSIVE SPACE MISSIONS

Architectural and Engineering Specification for a Fiber Optic Perimeter Intrusion Detection System. FiberPatrol FP1150

A Cost Effective Multi-Spectral Scanner for Natural Gas Detection

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

PERIMETER DEFENCE. Panorama Intruder Detection System Long Range, Day & Night, Automatic Panorama Intruder Detection

Recent Advances in Mercuric Iodide Detector Fabrication and Instrument Development*

Design Considerations for Abrasive Blast Rooms & Recovery Systems

UNCLASSIFIED. R-1 ITEM NOMENCLATURE PE A: Smoke, Obscurant and Target Defeating Sys - Eng Dev

About HGH Systemes Infrarouges About HGH

EXTINGUISHMENT AND BURNBACK TESTING OF FIRE FIGHTING AGENTS

Architectural and Engineering Specification for a Fiber Optic Pipeline Integrity Monitoring System. FiberPatrol FP7000

Formal tests over the last decade indicate that American

Naval Surface Warfare Center. Two Band Imaging System US Patent # 6,969,856. Mini Market Study. August 17, 2011

(U) Physical Security Against Explosive Threats: Standoff Magnetic and Electro-optical Sensing and Target Characterization

Summary Report for Individual Task Coordinate Execution of Obscuration Operations Status: Approved

Bill Sundermeier, PRESIDENT GOVERNMENT SYSTEMS THE FLIR ADVANTAGE

High-Altitude, Aerial Natural Gas Leak Detection System

WG Buried Fibre Cable Long Perimeter Detection System

UNCLASSIFIED R-1 ITEM NOMENCLATURE

ELECTRICAL IMPEDANCE TOMOGRAPHY

Chem-Bio Protection Without Chem- Bio Sensors:

Equipment Based on NDT Technique and Used in Security and Safety Provision Systems

SUMMARY OF METAL DETECTOR TRIAL REPORT UN MINE ACTION PROGRAMME AFGHANISTAN February - March 2002

FIRE HAZARD ASSESSMENT IN SUPPORTING FIRE PROTECTION SYSTEM DESIGN OF A CHEMICAL PROCESS FACILITY ABSTRACT

The Fiber SenSys Perimeter Intrusion Detection System From JM Fiber Optics!

FlexPS. Architectural & Engineering. Specification for FlexPS. Architectural/Engineering Specification for a

STANLEY E. BOREK Electrical Engineer Air Force Research Laboratory Multi-Sensor Exploitation Branch (AFRL/IFEC)

Codan Limit ed ABN Minelab & Parketronics Acquisition Investor Presentation 11 th March 2008

1.1. SYSTEM MODELING

THE ALBANIAN MINE ACTION PROGRAMME

Sustainability Criteria for Planning, Constructing, and Operating Contingency Bases

Griffin 824 Operational Suitability: Evaluation of Clear-Down Time for Mass Spectrometry- Based Trace Detector WHITE PAPER. Philip J. Tackett, Ph.D.

Form DOT F (8-72) Technical Report Documentation Page 2. Government Accession No. 3. Recipient's Catalog No.

AFRL-RB-WP-TR

ALBERTA FOREST PROTECTION THERMAL INFRARED PROGRAM

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

Sensor Technology. Summer School: Advanced Microsystems Technologies for Sensor Applications

The. Long Beach, California August 14-17, Solutions Network. Physical Security PERIMETER SECURITY TECHNOLOGIES. Leon Snyman GVI Security, Inc.

SYNERGY IN LEAK DETECTION: COMBINING LEAK DETECTION TECHNOLOGIES THAT USE DIFFERENT PHYSICAL PRINCIPLES

Development of an Electronically-Controlled Smoke Pot Aerosol Dispenser 1

SOLAR CELL PRODUCTION REQUIRES EFFECTIVE METROLOGY

A MICROCOMPUTER-BASED LIFE-SAFETY MONITORING SYSTEM FOR ELDERLY PEOPLE

CATSI EDM A MILITARIZED SENSOR FOR PASSIVE STANDOFF DETECTION OF CWA

Fiber Optic Cable Fence Disturbance Sensor

EVALUATION OF FIKE CORPORATION S EXPLOSION SUPPRESSION SYSTEM FOR ULTRA-HIGH SPEED FIRE SUPPRESSION APPLICATIONS

LVSS FLIR LIGHTWEIGHT VEHICLE SURVEILLANCE SYSTEM

FiberSystem. Fiber Optic Linear Heat Detection for Special Hazard Applications

N852 MINE WARFARE BRANCH

RaySense. Fiber Optic Distributed Vibration Sensing (DVS) for Pipeline Security and Leak Detection

BRITE II Characterization and Application to a New Advanced Flight Motion Simulator

UNCLASSIFIED. Cost To Complete Total Program Element E79: SMOKE/OBSCURANT SYSTEM.

PROGRAMME (IEDDET)

A CEN Workshop Agreement on soil characterisation for metal detector and ground penetrating radar performance. Test and evaluation

state of the art methane leak detection CHARM and GasCam 2011 October 13 th Dr. Axel Scherello

Perimeter security summit Washington, 17 May 2005

Metal Detectors and PPE Catalogue 2005

Perimeter security using Fibre optics

Stand-off Detection of Trace Explosives by Infrared Photothermal Imaging. Trace Contamination

WG Railway Security Protection System

Y003 Multi-offset Seismic Acquisition Using Optical Fiber Behind Tubing

RAMAN SPECTROSCOPY See more, faster than ever before

Change Detection Using Down-Looking Ground-Penetrating Radar

Taut Wire intrusion detection sensor (TWIDS)

RaySense. Fiber Optic Distributed Acoustic Sensing for Pipeline Security and Leak Detection

Standoff CWA/TIC Detection. Innovation with Integrity. Toxic Gas/Vapour Threat Mitigation RAPIDplus CBRNE

Domestic Nuclear Detection Office (DNDO)

Optech Thermal IR Sensing Solutions Expanding the Industry

Domestic Nuclear Detection Office (DNDO)

Chapter 1. Introduction

Ice Motion Detector System

E. debrun GICHD Operations 27/06/14

Volume Sensor Multi-sensor, Multi-criteria Event Detection

(12) United States Patent

Surveillance and Target Acquisition

An Excelitas Technologies Company Surveillance and Target Acquisition

Transcription:

Approved for public release; distribution is unlimited Sensor Grand Challenges: An NVESD Perspective James D. Howe U. S. Army NVESD 23 February 1999

Form SF298 Citation Data Report Date ("DD MON YYYY") 23021999 Report Type N/A Dates Covered (from... to) ("DD MON YYYY") Title and Subtitle Sensor Grand Challenges: An NVESD Perspective Authors Contract or Grant Number Program Element Number Project Number Task Number Work Unit Number Performing Organization Name(s) and Address(es) U. S. Army NVESD Sponsoring/Monitoring Agency Name(s) and Address(es) Performing Organization Number(s) Monitoring Agency Acronym Monitoring Agency Report Number(s) Distribution/Availability Statement Approved for public release, distribution unlimited Supplementary Notes Abstract Subject Terms Document Classification unclassified Classification of Abstract unclassified Classification of SF298 unclassified Limitation of Abstract unlimited Number of Pages 20

Sensor Grand Challenges 10 challenges for future sensor development to be presented. Challenges recently identified by Dr. Milton Some presently being addressed by specific program at NVESD, others more general Present status and future goals will be identified.

Challenge 1 See Before Being Seen Achieve an ID range that exceeds the enemy s detection range Avoids fratricide Possible Solution: UNFOV Program addressing this at NVESD: MFS3 Range (km) System performance NFOV Det NFOV ID NFOV ID UNFOV ID

Multifunction Staring Sensor Suite (MFS3) Exit Criteria OPERATIONAL Baseline ATD ATD CAPABILITY M2A3 FLIR Minimum Goal Ground Target ID (Pid=0.90), Manual Tank Target NFOV (1.5 o ) 1.0 X 1.75 X 1.9 X Ultra-NFOV (0.5 o ) N/A 2.8 X 3.5 X Target Detection (Pd=0.70), Manual Helo NFOV (1.5 o ) TBM 4.2 X 5.1 X UAV NFOV (1.5 o ) TBM 9.5 X 12.0 X Ground Target Det/Recg (Pd/r=0.50), Aided Tank Target, NFOV (1.5 o ), MFS3 Stationary N/A 2.8 X 3.5 X Tank Target, NFOV (1.5 o ), MFS3 On-The-Move (25 km/hr on Secondary Road) N/A 2.2 X 2.8 X Time to Detect (seconds) 90 * 10 Initial / 10 Initial / 4 Update 4 Update False Alarm Rate N/A 1.0 Y / FOR 1.0 Y / FOR Field of Regard (FOR) 180 o x 9 o * 180 o x 9 o 360 o x 9 o * Manual

Ft. Rucke r-aided Ft. Rucke r-manual NVL-Aid ed NVL-Man ual Challenge 2 Decrease Target Acquisition Times Goal: reduce search time by 10x Possible solutions might involve: Gimbal scan AiTR/ATR Probability of Detection 1 0.9 0.8 0.7 0.6 0.5 0.4 0.3 0.2 0.1 Threat Acquisition Timeline** Aided Manual UNFOV 0 0 10 20 30 40 50 60 Multispectral staring Search Time (sec) Passive MTI **Source: Reago, et. al., Proceedings of 20th Army Science Conference, 1996

Challenge 3 Provide Superior Capability to Soldier at Reduced Cost/Weight/Power Present capability: LTWS 3.0 lbs $10-12K (volume dependent) 1.1W standby, 3.5W fully operational Goals: $5K Sensor < 3 lbs $1K Laser < 1 lb $1K Display < 1 Watt

Provide Superior Capability to Soldier at Reduced Cost/Weight/Power Possible solutions might involve: Innovative techniques for IR optics Further improvements in detector fabrication techniques and performance Fostering commercial applications

Challenge 4 Detection of Partially Obscured and Low Observable Targets Goal: detection of hull-down tank at 5+km. Possible solution might include: Multispectral discrimination capability

Challenge 5 Increase all-weather search rates within TUAV cost/weight constraints Present search rates 10 km 2 /hr TUAV GPS Goal: EO/IR & SAR search at 150 km 2 /hr TCDL 200 Kb/s 10.71 Mb/s 60 lbs or less for sensor + processor 500 m @.3 m Resolution SAR TCS Variable Strip Mode 1.5 km $120-$150K for EO/IR sensor module FLIR MTI Scan Pattern 500 m 1.5 km @ 1.0 m Resolution Search 500 m @.3 m Resolution Spot 15 km Selectable Coverage

Tactical Countermining - Humanitarian Demining Contrasts Tactical Countermining Focuses on enhancing force maneuverability and mobility. Minefields must be rapidly detected in all possible conditions. Breaching provides for rapid mine clearance through selected areas w/o the need for finding individual mines. Humanitarian Demining Detection of EACH landmine is more important than the speed of movement. Goal of demining is to locate and destroy ALL landmines within a large designated area. ECONOMIC CONSIDERATIONS are important when deciding if and when a specific minefield will be cleared. SAFETY is the most important consideration. CASUALTIES ARE UNACCEPTABLE.

Challenge 6 Standoff Minefield Avoidance Goal: airborne minefield detection from > 1000 ft. No present fielded capability LAMD program addressing this need

Lightweight Airborne Multispectral Minefield Detection (LAMD) Exit Criteria Operational Capability/Parameter Exit Criteria Minimum Goal Probability of Detection - surface patterned minefields - buried patterned minefields - surface scatterable minefields - buried nuisance mines on unpaved roads False Alarm Rate - false detections / square kilometer of area covered Detection Accuracy - minefield edge - minefield boundary Sensor Weight 80% 65 % 70 % 60 % FAR < 0.5 < 150 m n/a < 65 lbs. *95% *80 % *85 % *75 % *FAR < 0.5 < 100m < 150m < 35 lbs. * PD and FAR goals during defined operational conditions (i.e. time of day, environment, etc.). Conditions to be defined at the conclusion of the phenomenology investigations.

Challenge 7 Road Clearance at Reasonable Rates of Advance Present fielded capability: Hand held metal detector (AN/PSS- 12) and nonmetallic mine probe High false alarm rate slows clearance. An approach to meeting this challenge = VMMD Vehicle mount Increased PD for all mines Reduced FAR in all conditions 3m swath for detectors

Vehicular Mounted Mine Detection (VMMD) Exit Criteria Metric ATD Exit Criteria Minimum Field Requirement (Production) Speed (Km/hr) 3.6 15 P det (Surface) 95 95 P det (buried) 92 95 False Alarm Rate 0.02 0.001 (FA/m 2 ) Mark Accuracy < 1 meter < 1 meter

VMMD Averaged Test Results Mine Type Detection Probability Metallic Encased AT (Surface) 100 Metallic Encased AT (Buried) >90 Non-metallic encased AT (Surface) >90 Non-Metallic encased (Buried) 65-100 False Alarm rates = 0.05-0.25 /m 2

Challenge 8 Affordable Humanitarian Demining Present methods usually involve metal detectors and manual probes. P det for metal mines high but FAR high, slowing clearance. Presently investigating other detection methods.

Challenge 9 Protect Rotorcraft and Ground Vehicles From Advanced Seeker Missiles Goal: Vehicle self-protection for under $100K Present rotorcraft protection system (ATIRCM ) uses multiple detection subsystems. No fielded ground vehicle selfprotection suite. Possible solutions might include: Multiple overlapping FOVs in single sensor head for warning system Uncooled sensors ATIRCM jam head

Challenge 10 Networked Situational Awareness Goal is for low cost distributed sensor networks Arrays of Micro IR Imaging sensors Other sensors in net: acoustic, seismic, RF, magnetic.

Warrior Extended Battlespace STO Objectives STO Objectives Operational Current Capability Capability Minimum Goal Size 150 in 3 2 in 3 1 in 3 Power 10 W 1000 µ W 300 µ W Cost $20,000 $100 $50 Deployment hand air, hand +munitions Training N/A 2 days 1 day Communications link 5 km 100 km 200 km Unattended Operation 30 days 60 days 120 days

Summary Significant challenges facing sensor developers have been identified. Successfully meeting the challenges will provide substantial payoff in operational capability. Common themes: Size/weight constraints Automated/autonomous operation Multispectral solutions Cost often the major consideration