Position, Navigation, and Timing Branch C2D, Battle Command Division Fort Monmouth, NJ

Similar documents
D Locator Indoor Positioning for Firefighters and Other First Responders. WPI Technology Workshop 5 August 2008

Inertial Doppler Radio Locator (IDRL) for DoD Test Range Applications

OFFensive Swarm-Enabled Tactics (OFFSET)

ARMY RDT&E BUDGET ITEM JUSTIFICATION (R2 Exhibit)

The Army s Future Tactical UAS Technology Demonstrator Program

Jim Kaba, Shunguang Wu, Siun-Chuon Mau, Tao Zhao Sarnoff Corporation Briefed By: Jim Kaba (609)

Sensor Fusion for Robust Urban Navigation: Test Results from the Advanced Position/Navigation and Tracking the Future Force (APNTFF) Program

Mesh Networks. unprecedented coverage, throughput, flexibility and cost efficiency. Decentralized, self-forming, self-healing networks that achieve

Weaponizing the Spectrum

Robotic Systems. Jeff Jaster Deputy Associate Director for Autonomous Systems US Army TARDEC Intelligent Ground Systems

Cooperative navigation (part II)

Distribution Statement A (Approved for Public Release, Distribution Unlimited)

Honeywell GLANSER Emergency Responder Locator System. WPI Workshop August 1, 2011

DISTRIBUTED COHERENT RF OPERATIONS

Cooperative localization (part I) Jouni Rantakokko

Multipath Mitigation Algorithm Results using TOA Beacons for Integrated Indoor Navigation

UNCLASSIFIED. UNCLASSIFIED R-1 Line Item #13 Page 1 of 11

Networked Targeting Technology

AMSAA MOUT RF Propagation Model. 15 May 2003 Thomas W. Colegrove Army Materiel Systems Analysis Activity (AMSAA) Aberdeen Proving Ground

Science & Technology for the Objective Force

Wireless Intro : Computer Networking. Wireless Challenges. Overview

Real-time Cooperative Behavior for Tactical Mobile Robot Teams. September 10, 1998 Ronald C. Arkin and Thomas R. Collins Georgia Tech

Wide Area Wireless Networked Navigators

S&T Stakeholders Conference

Platform Independent Launch Vehicle Avionics

Disruption Opportunity Special Notice DARPA-SN Imaging Through Almost Anything, Anywhere (ITA3)

Access all areas: emerging approaches for GPS-denied operations

Adaptive Array Technology for Navigation in Challenging Signal Environments

Multipath Mitigation Algorithm Results using TOA Beacons for Integrated Indoor Navigation

UNCLASSIFIED R-1 ITEM NOMENCLATURE FY 2013 OCO

RFID for Continuous Monitoring in Dynamic Environments

Small Robot User Assessment irobot PackBot EOD Evaluation Report

Understanding DARPA - How to be Successful - Peter J. Delfyett CREOL, The College of Optics and Photonics

Communications Planner for Operational and Simulation Effects With Realism (COMPOSER)

Despite the euphonic name, the words in the program title actually do describe what we're trying to do:

Distributed Virtual Environments!

Integrated GPS/TOA Navigation using a Positioning and Communication Software Defined Radio

The Human in Defense Systems

Test & Evaluation (T&E)/Science & Technology (S&T) Program

Integrated Transition Solutions

Presented at the 2017 ICEAA Professional Development & Training Workshop. TRL vs Percent Dev Cost Final.pptx

WE SPECIALIZE IN MILITARY PNT Research Education Engineering

Spin-on and Spin-off Challenges of Commercial Technologies

Virtual Reality Devices in C2 Systems

Wireless Progresses! Mick Lambert President & C.O.O. Wireless Seismic Inc.

UNCLASSIFIED. UNCLASSIFIED Office of Secretary Of Defense Page 1 of 5 R-1 Line #102

Defense Advanced Research Projects Agency (DARPA)

Test and Evaluation of Mitigating Technologies for UAS in GPS Degraded and Denied Environments

AEROSPACE AND DEFENSE

V2X-Locate Positioning System Whitepaper

Comments of Shared Spectrum Company

Cognitive RF Systems and EM Fratricide Part II

Working towards scenario-based evaluations of first responder positioning systems

Dr. Barton Halpern Advanced Small Unit Small Arms Technology Concepts Project 15 May 2012

Programmable Wireless Networking Overview

Use of Communications EW in a Network Centric Warfare Environment

I Need Your Cost Estimate for a 10 Year Project by Next Week

A Knowledge-Centric Approach for Complex Systems. Chris R. Powell 1/29/2015

System of Systems Integration Technology & Experimentation (SoSITE)

Technology Roadmapping. Lesson 3

WOLF - Wireless robust Link for urban Forces operations

Worst-Case GPS Constellation for Testing Navigation at Geosynchronous Orbit for GOES-R

Micro Autonomous Systems and Technology CTA

Inmarsat L-TAC. Supports both UHF and VHF tactical radios. U.S. GOVERNMENT > Product > L-TAC

Cooperative navigation: outline

Getting Started with Modern Campaigns: Danube Front 85

Real-Time Spectrum Management for Wireless Networks

Test and Evaluation/ Science and Technology (T&E/S&T) Program

Seeds of Technological Change

Small Arms Material and Process Technology (SAM&PT) Research Program

Dr. Tony Tether Director

School of Surveying & Spatial Information Systems, UNSW, Sydney, Australia

Air Force Materiel Command

AAC/XR: Shaping Tomorrow

Army Research Laboratory -Orlando TSIS 2017

Wearable Robotics Funding Opportunities and Commercialization of Robotics and Mobility Systems Bruce Floersheim, Ph.D., P.E.

CNS - Opportunity for technology convergence

Doodle Labs Prism-WiFi Transceiver NM-4900 High Performance COFDM/MIMO Broadband Transceiver with minipcie

Future Vertical Lift Overview

Very Affordable Precision Projectile System and Flight Experiments

Amendment 0002 Special Notice N SN-0006 Future X-Band Radar (FXR) Industry Day

Proceedings of Al-Azhar Engineering 7 th International Conference Cairo, April 7-10, 2003.

Small Arms Weapons & Fire Control Demonstration Project

Engineered Resilient Systems DoD Science and Technology Priority

Design of a Remote-Cockpit for small Aerospace Vehicles

Autonomous Tactical Communications

The EDA SUM Project. Surveillance in an Urban environment using Mobile sensors. 2012, September 13 th - FMV SENSORS SYMPOSIUM 2012

xmax Solutions for Public Safety Applications

Beyond DAML. Mark Greaves DARPA / IXO

The MARS Helicopter and Lessons for SATCOM Testing

Wireless Network Security Spring 2012

DoD Research and Engineering

ARCHIVED REPORT. ULQ-19(V)/RACJAM - Archived 6/97

Lecture 2: Embedded Systems: An Introduction

Future of GNSS Receivers. Éamonn Glennon

UNCLASSIFIED. FY 2016 Base FY 2016 OCO


GNSS for UAV Navigation. Sandy Kennedy Nov.15, 2016 ITSNT

DARPA Director s Vision of Communications Technology Evolution

Case Study: Land and Sea Demo v2.0 April 4 th, 2018 San Diego, CA

Transcription:

Position, Navigation, and Timing Branch C2D, Battle Command Division Fort Monmouth, NJ Soldier Navigation Architecture Study Presented by Van Tran / Gina Guiducci August 3, 2009

Who We Are Department of Defense (DoD) Department of the Army (DA) Army Materiel Command (AMC) Research, Development and Engineering Command (RDECOM) Communications-Electronics Research, Development and Engineering Center (CERDEC) Command and Control Directorate (C2D)

Introduction The Army has a growing need to conduct operations in urban and indoor environments. The Communications Electronic Research, Development and Engineering Center's (CERDEC) Command and Control Directorate (C2D) is pursuing several programs to develop positioning capabilities for dismounted Soldier operating in these environments. Examples: Militarized 3D Locator (M3DL) Radio Frequency Adaptive Technologies Integrated with Communications And Location (RADICAL)

The following are examples of tactics, techniques and procedures: Individual movement techniques. Battle drills. Weapon positioning in an urban area. Roadblock and vehicle search procedures. Dismounted and mounted urban navigation. Urban scanning techniques. Quick fire techniques. Assault fire techniques. Typical Military Missions Hasty urban firing positions. Prepared urban firing positions. US Army HQ, Training Circular 90-1, TRAINING FOR URBAN OPERATIONS

Subterranean Typical Urban Terrains Cultural Center Financial District High Density Inner City Heavy Industry Shanty Light Industry Urban Sprawl

Militarized 3D Locator (M3DL)

M3DL Background M3DL builds on the Department of Homeland Security (DHS) * Advanced 3D Locator (A3DL) program A3DL addressed firefighters and first responders applications M3DL addresses Soldiers operating in urban environments M3DL designed for military applications Requires replacing commercial subsystems with military subsystems (e.g. GPS, military communications / RF ranging radios) Top level architecture is very similar to A3DL * For more information on DHS Location Tracking, Contact, PM, DHS S&T

A3DL vs M3DL Comparison A3DL M3DL Trade Studies * Falcom JP14-R / SiRFStar III chipset Honeywell Baro Altimeter MSSI RF Ranging Receiver ICI Mobiquiti ad hoc mesh network radio MicroStrain IMU * Military GPS Rec vr Honeywell Baro Alt OEM Configuration * Military Comms / Ranging Radio MicroStrain IMU Advanced Pedometry algorithms PowerPC440 Processor (separate chip) * Doppler Veloc- IMU; DRM 4000 PowerPC440 Processor (embedded) Decentralized Cooperative Navigation (DCN) algorithms Backpack configuration Decentralized Cooperative Navigation (DCN) algorithms * Configuration baseline subject to change / trade studies.

M3DL Technical Baseline Concept M3DL (Technical Baseline) DRM 4000 M3DL Nav CCA 3.5 x 2.5 Battery M3DL Processor CCA 3.5 x 2.5 Doppler IMU MGPS 1 Ethernet Ranging Radio OR MGPS 2 Trade Studies

Deliverables / Activities Deliverables Monthly Reports Operation Manual Interface Design Description 20 M3DL Systems Final Report Activities Kick-off Meeting Trades Studies Technical Interchange Meeting Final Demo

RF Adaptive Technologies Integrated with Communications And Location (RADICAL)

RF ADaptive Technologies Integrated with Communications And Location (RADICAL) Purpose: Develop and demonstrate software that identifies available spectrum dynamically (RF-aware) for tactical communications and for position location in GPS-degraded environments Products: Software module that enables spectrum policy management for Dynamic Spectrum Access (DSA) enabled radios (e.g. PRC-148/152) Architecture to integrate and enhance DARPA Disruption Tolerant Networking (DTN) for future use in Army tactical networks such as WIN-T Software for position locating based on Net Assisted Navigation and RF Ranging techniques Payoff: Reliable message delivery in disruptive communications environment Provide position locating in GPS degraded environments 08-01-08

Goal: RADICAL Navigation Technologies Develop RF based software modules for integration into soldiers radio systems. - Capable of insertion with a wide variety of soldiers radio systems. - Minimal impact to the hardware configuration of the communications or navigation equipment. Activities: - Soldier Navigation Architecture Study (SNAS) - Network Assisted Navigation Software Development - RF Ranging Software Development - Test & Integration

RF Ranging Estimate range between soldiers based on the time of flight of the communications packets. Active RF Ranging Require transmit signals designated for ranging Require more the radio s resources More accurate Better control Passive RF Ranging. Range measurements take advantage of the existing communication signals passing between radios Require less resources. Less accurate Rigid Both methods are being examined for use in the RADICAL application.

Network Assisted Navigation Improve the performance of GPS based navigation systems by providing data via the radio network to the GPS receiver. Using radio network to share position and measurement data between nodes to improve the overall position accuracy.

FY 09 Soldier Navigation Architecture Study (SNAS) Objective: - Identify and rank candidate navigation architecture to support the transition of the RADICAL navigation technologies to fielded systems. - Design a navigation architecture over the Platoon of dismounted Soldiers that satisfies the individual Soldier position performance needs while optimizing the navigation system attributes. - Identify and address future position capabilities for the Soldier.

Soldier Navigation Architecture Study Approach Perform Investigations Identify dismounted Soldier navigation needs, relevant navigation systems operational and physical characteristics, constraints as well as representative operational scenarios. Identified system attributes, (e.g., Cost, Power, Performance, Weight, Size, Robustness, ) Conduct Technology survey to identify candidate technologies Develop Trade Study Methodology Set weights for system attributes Establish System Performance Metrics

Candidate Architectures Soldier Navigation Architecture Study Approach (Cont.) Develop candidate architectures Pare down candidate architectures and contributing technologies for analysis Conduct trade Include baseline architectures (i.g., current dismounted Soldier system) Baseline architectures with RADICAL technologies and other technologies Conduct simulation for performance evaluation Rank architectures Document Trade Study

System Attributes Navigation Error Cost Power Weight Size Integrity Availability Security Complexity (Ease of Use) Attribute 2 (e.g., Navigation Error) n a R Attributes space a2 a3 a4 a1 Attribute 1 (e.g., Cost)

Weighting Attributes System parametric constraints System threshold values System goal values Attribute Measure of Performance Examples Low Cost / High Cost Small Size / Large Size (System Effectiveness) -1 Highly Effective Ineffective M T G Goal Value Threshold Value Maximal Constraint Ideal f(a) Attribute (Measure of Performance) Low Error / High Error

RADICAL Progress and Way Ahead Progress Met with users and Program Managers of fielded systems for technology transition Interviewed dismounted Soldiers on system attributes and operational scenarios Reviewed system specification and capability development document Next steps Interim Soldier Navigation Architecture Study Report Broad Agency Announcement (BAA) for RADICAL navigation technologies (Sept/Oct 2009)