Military Ground Robot Market Shares, Strategies, and Forecasts, Worldwide, 2012 to 2018
Publisher Name » Winter Green Research
Published Date » 2012-02-13
No. Of Pages » 609
WinterGreen Research announces that it has a new study on Military Ground Robots and Unmanned Vehicles. The 2012 study has 609 pages, 274 tables and figures. Worldwide markets are poised to achieve significant growth. Just as the conflicts in Iraq and Afghanistan are winding down, leaving a lot of spare devices, the military is seeking to develop a modernization strategy.
Military ground robots promise to provide the core technology for management of conflict as strict nationalism in military matters is being replaced by the new era of terrorist threats. Military robot are used globally. Growth comes as the nature of combat changes in every region while the globally integrated enterprise replaces nationalistic dominance.
Military robots provide modernization of the military and automated process applied to the defense industry. Process is the next wave of military evolution. As automated systems and networking complement the Internet, communication is facilitated on a global basis. The military charter is shifting to providing protection against terrorists and people seek to maintain a safe, mobile, independent lifestyle. Much of the military mission is moving to adopt a police force training mission, seeking to achieve protection of civilian populations on a worldwide basis.
According to Susan Eustis, the lead author of the study, "the purchase of military robots s is driven by the need for modernization of the military." The new military is dependent on flexibility and early response. The use of military robots s is based on providing a robot that is less expensive to put in the field than a trained soldier and the desire to keep the trained soldiers out of harm's way. That automation of process and modernization has appeal to those who run the military.
Robots are automating military ground systems, permitting vital protection of soldiers and people in the field, creating the possibility of reduced fatalities. Mobile robotics operate independently of the operator.
We hear from military leaders all over the world that the plan going forward is to utilize automated process to replace the warfighters and keep them out of the line of fire. The military robot market.is evolving in this context.
The Iraq and Afghanistan conflicts gave rise to the development and use of military robotics. As these conflicts are resolved, the military robots are finding new uses as border patrol. The 250 kilometer demilitarized zone between South and North Korea is patrolled along its entire length. The border between the United States and Mexico is not patrolled continuously along its entire length.
In Europe you begin to see an opening of the borders while the US has become more strict. The border separating Israel from the territories is not continuously patrolled along its entire length. This issue of nationalistic border patrol is a complex one, some borders are opening while others are closing. There will be a variety of ways of managing a border for the foreseeable future. In any case, robots are sure to provide technology for protecting borders, protecting safety in cities, and building smarter cities.
Defense robot security systems have an emphasis on causality reduction during combat. This aim has resulted in investment in robotics technology because robots save lives. Robotic research is continuing to be a priority for government spending. The Army has a goal of making operational ground combat vehicles unmanned. The US Navy and Marines have similar initiatives.
Robots are set to play a more significant role in military operations going forward. Just as automated process has revolutionized the banking and insurance industry, so also robotics is set to revolutionize the military and all security. Better surveillance and better automated mobility controlled from a relatively safe remote site are the aim of achieving military robotics.
Robots are set to play a more significant role in military operations going forward. Just as automated process has revolutionized the banking and insurance industry, so also robotics is set to revolutionize the military and all security. Better surveillance and better automated mobility controlled from a relatively safe remote site are the aim of achieving military robotics.
In the military operations, thousands of robots were used in Iraq and Afghanistan. As the US withdraws from these areas there will be an adjustment in the quantities of military robots ordered. In the longer term, the use of military robots will increase as they replace the need to put war fighters in the line of direct fire. The use of military robots in the Armed Services is expected to increase worldwide. Military robots are significantly less expensive to use than human fighters. United States Army modernization program has been implemented as the Army brigade combat team modernization program.
Roboticists are more advanced in their training and in the tools available to create robots. Robots are modular permitting repurposing in the field. Military robots have evolved from units used in the field to manage different situations that arise. Robots save lives.
Defense security systems have an emphasis on causality reduction during combat. This has resulted in investment in robotics technology that is useful. Robotic research is on the fast track for government spending. Congress is seeking to make an Army has operational ground combat vehicles that are unmanned. The US Navy and Marines have similar initiatives underway.
Military ground robot market forecast analysis indicates that vendor strategy is to pursue developing new applications that leverage leading edge technology. Robot solutions are achieved by leveraging the ability to innovate, to bring products to market quickly. Military purchasing authorities seek to reduce costs through design and outsourcing. Vendor capabilities depend on the ability to commercialize the results of research in order to fund further research. Government funded research is evolving some more ground robot capability.
Military ground robot markets at $3.4 billion in 2011 are anticipated to reach $12.3 billion by 2018.
Military ground robots promise to provide the core technology for management of conflict as strict nationalism in military matters is being replaced by the new era of terrorist threats. Military robot are used globally. Growth comes as the nature of combat changes in every region while the globally integrated enterprise replaces nationalistic dominance.
Military robots provide modernization of the military and automated process applied to the defense industry. Process is the next wave of military evolution. As automated systems and networking complement the Internet, communication is facilitated on a global basis. The military charter is shifting to providing protection against terrorists and people seek to maintain a safe, mobile, independent lifestyle. Much of the military mission is moving to adopt a police force training mission, seeking to achieve protection of civilian populations on a worldwide basis.
According to Susan Eustis, the lead author of the study, "the purchase of military robots s is driven by the need for modernization of the military." The new military is dependent on flexibility and early response. The use of military robots s is based on providing a robot that is less expensive to put in the field than a trained soldier and the desire to keep the trained soldiers out of harm's way. That automation of process and modernization has appeal to those who run the military.
Robots are automating military ground systems, permitting vital protection of soldiers and people in the field, creating the possibility of reduced fatalities. Mobile robotics operate independently of the operator.
We hear from military leaders all over the world that the plan going forward is to utilize automated process to replace the warfighters and keep them out of the line of fire. The military robot market.is evolving in this context.
The Iraq and Afghanistan conflicts gave rise to the development and use of military robotics. As these conflicts are resolved, the military robots are finding new uses as border patrol. The 250 kilometer demilitarized zone between South and North Korea is patrolled along its entire length. The border between the United States and Mexico is not patrolled continuously along its entire length.
In Europe you begin to see an opening of the borders while the US has become more strict. The border separating Israel from the territories is not continuously patrolled along its entire length. This issue of nationalistic border patrol is a complex one, some borders are opening while others are closing. There will be a variety of ways of managing a border for the foreseeable future. In any case, robots are sure to provide technology for protecting borders, protecting safety in cities, and building smarter cities.
Defense robot security systems have an emphasis on causality reduction during combat. This aim has resulted in investment in robotics technology because robots save lives. Robotic research is continuing to be a priority for government spending. The Army has a goal of making operational ground combat vehicles unmanned. The US Navy and Marines have similar initiatives.
Robots are set to play a more significant role in military operations going forward. Just as automated process has revolutionized the banking and insurance industry, so also robotics is set to revolutionize the military and all security. Better surveillance and better automated mobility controlled from a relatively safe remote site are the aim of achieving military robotics.
Robots are set to play a more significant role in military operations going forward. Just as automated process has revolutionized the banking and insurance industry, so also robotics is set to revolutionize the military and all security. Better surveillance and better automated mobility controlled from a relatively safe remote site are the aim of achieving military robotics.
In the military operations, thousands of robots were used in Iraq and Afghanistan. As the US withdraws from these areas there will be an adjustment in the quantities of military robots ordered. In the longer term, the use of military robots will increase as they replace the need to put war fighters in the line of direct fire. The use of military robots in the Armed Services is expected to increase worldwide. Military robots are significantly less expensive to use than human fighters. United States Army modernization program has been implemented as the Army brigade combat team modernization program.
Roboticists are more advanced in their training and in the tools available to create robots. Robots are modular permitting repurposing in the field. Military robots have evolved from units used in the field to manage different situations that arise. Robots save lives.
Defense security systems have an emphasis on causality reduction during combat. This has resulted in investment in robotics technology that is useful. Robotic research is on the fast track for government spending. Congress is seeking to make an Army has operational ground combat vehicles that are unmanned. The US Navy and Marines have similar initiatives underway.
Military ground robot market forecast analysis indicates that vendor strategy is to pursue developing new applications that leverage leading edge technology. Robot solutions are achieved by leveraging the ability to innovate, to bring products to market quickly. Military purchasing authorities seek to reduce costs through design and outsourcing. Vendor capabilities depend on the ability to commercialize the results of research in order to fund further research. Government funded research is evolving some more ground robot capability.
Military ground robot markets at $3.4 billion in 2011 are anticipated to reach $12.3 billion by 2018.
- MILITARY ROBOT EXECUTIVE SUMMARY
- Military Robotics Market Driving Forces
- Military Robots Market Shares
- Military Robots Market Forecasts
- Robots Represent Modernization of Military
- Army Modernization
- 1. MILITARY ROBOTS MARKET DESCRIPTION AND MARKET DYNAMICS
- 1.1 Robots Delivering Offensive and Defensive Capabilities to Combat Teams
- 1.1.1 Military Robots
- 1.1.2 Army Agile Process
- 1.1.3 Robots Used in War
- 1.2 US Army Modernization 2012
- 1.2.1 Military Robot Autonomy or Control
- 1.2.2 M3 is a DARPA Robotics Program Agile methods Rapidly Deliver Business Process And Application Change
- 1.3 Military Robot Scope
- 1.3.1 Military Robot Applications
- 1.4 Army's G8 Futures office
- 1.4.1 Delivering Capabilities to the Army's Brigade Combat Teams
- 1.4.2 Transition Between The Current Market And Where The Market Is Going
- 1.4.3 Different Sizes of UGVs
- 1.5 Types of Military Robots
- 1.5.1 Explosive Observation Robot and Ordnance Disposal
- 1.5.2 QinetiQ North America Talon® Robots Universal Disrupter Mount
- 1.5.3 General Dynamics Next-Generation
- 1.5.4 Soldier Unmanned Ground Vehicle from iRobot
- 1.6 UGV Enabling Technologies
- 1.6.1 Sensor Processing
- 1.6.2 Machine Autonomy
- 1.7 Military Robot Bandwidth
- 1.7.1 UGV Follow-Me Capability
- 1.7.2 Communications Bandwidth
- 1.7.3 Battery Power
- 1.7.4 Combination Of Batteries Linked To Onboard Conventional Diesel
- 1.8 SUGVs
- 1.8.1 Mid-Size Category UGV
- 1.8.2 Large UGV
- 1.8.3 U.S. Army Ground Combat Vehicle
- 1.8.4 TARDEC
- 1.8.5 RS JPO Organization
- 2. MILITARY ROBOT MARKET SHARES AND FORECASTS
- 2.1 Military Robotics Market Driving Forces Military Robots Market Driving Forces
- 2.2 Military Robots Market Shares
- 2.2.1 General Dynamics Robotic Systems
- 2.2.2 General Dynamics Robotic Systems (GDRS) Tactical Autonomous Combat - Chassis
- 2.2.3 Northrop Grumman ANDROS
- 2.2.4 Northrop Grumman Remotec Andros Robots
- 2.2.5 Northrop Grumman Caliber® T5 is a small EOD and SWAT robot.
- 2.2.6 Northrop Grumman Caliber Robot
- 2.2.7 Northrop Grumman Remotec Andros
- 2.2.8 Northrop Grumman / Remotec
- 2.2.9 Northrop Grumman Remotec UK Wheelbarrow Robots
- 2.2.10 iRobot PackBot / Boeing
- 2.2.11 iRobot's Small Unmanned Ground Vehicle (SUGV)
- 2.2.12 iRobot $7.4 Million Order for Small Unmanned Ground Vehicles
- 2.2.13 iRobot 710 Warrior Controls
- 2.2.14 iRobot Government & Industrial Robots: Protecting Those In Harm’s Way
- 2.2.15 iRobot Semi-Autonomous Operations: Wayfarer Route Mapping
- 2.2.16 iRobot Research / iRobot Collaborative Systems
- 2.2.17 Gostai Jazz Security
- 2.2.18 iRobot PackBot Small EOD Robots
- 2.2.19 iRobot Heavier-Class Warrior Robot
- 2.2.20 QinetiQ / Foster Miller
- 2.2.21 QinetiQ Group Plc's Talon and Dragon Runner
- 2.2.22 BAE Systems Gladiator TUGV
- 2.2.23 BAE Gladiator TUGV High-Mobility Robot
- 2.2.24 Lockheed Martin Multi-Mission
- 2.2.25 Lockheed Remotely Controlled UGVs Marine Corps’ Gladiator TUGV (Tactical Unmanned Ground Vehicle)
- 2.2.26 Allen Vanguard Defender ROV Large Bomb Disposal Robot Features
- 2.2.27 Allen Vanguard Defender ROV
- 2.2.28 Digital Vanguard EOD Robot
- 2.2.29 Boeing/SAIC BCTM/ E-IBCT Increment
- 2.2.30 Thales Group Mini UAV and UGVs Warrior robots
- 2.2.31 Thales Group Ground Master 400 (GM 400)
- 2.2.32 Boston Dynamics Rough-Terrain Robot
- 2.2.33 Recon Robotics
- 2.3 Military Robots Market Forecasts
- 2.3.1 Robots Represent Modernization of Military
- 2.3.2 Army Modernization
- 2.3.3 Army Brigade Combat Team Modernization
- 2.3.4 New World Order Built On The Globally Integrated Enterprise
- 2.3.5 Military Ground Robot Markets
- 2.3.6 Mission Specific Military Robot Unmanned Systems by Weight Class
- 2.3.7 Robotics Categories Established By The U.S. Department of Defense’s Joint Robotics Program
- 2.3.8 Tactical Miniature Micro Military Robot Market Forecasts
- 2.3.9 Small Unmanned Ground Vehicle (SUGV) / Soldier UGV
- 2.3.10 SUGV and Small 31 to 400 Pound Military Robot Market Forecasts
- 2.3.11 COBRA is a Soldier UGV (SUGV)
- 2.3.12 Man Transportable Robotic System (MTRS)
- 2.3.13 T3
- 2.3.14 Robotic Rescuers
- 2.3.15 Autonomous UGVs
- 2.3.16 Small / Medium 401 to 2,500 Pound Military Robot Market Forecasts
- 2.3.17 Large Unmanned Military Robot Market Forecasts
- 2.3.18 Military Robots Shipments, Market Forecast Units
- 2.3.19 Military Robots Light
- 2.3.20 Tactical, Micro-Robot Systems
- 2.3.21 Small Unmanned Ground Vehicle (SUGV),
- 2.4 Classes of Unmanned Ground Vehicles (UGVs)
- 2.4.1 Armed Robotic Vehicle (ARV)
- 2.4.2 US BCT Unmanned Ground Vehicle Funding
- 2.4.3 Funding Military Robots in US for 2011
- 2.4.4 US Army's BCT Modernization Program Funding
- 2.4.5 Efforts to Mitigate The Improvised Explosive Device Threat To Dismounted Operations
- 2.4.6 US Joint Improvised Explosive Device Defeat Organization
- 2.4.7 Route Mapping
- 2.4.8 Man-Packable SUGV
- 2.5 Military Robot Regional Analysis
- 2.5.1 Demilitarized Zone Between South and North Korea
- 2.5.2 Chinese Military Robots
- 3. MILITARY ROBOT PRODUCT DESCRIPTION
- 3.1 General Dynamics Robotic Systems (GDRS)
- 3.1.1 General Dynamics Robotic Systems’ Autonomous Navigation System (ANS)
- 3.1.2 General Dynamics Robotic Systems
- 3.1.3 General Dynamics Robotic Systems (GDRS)
- Tactical Autonomous Combat - Chassis
- 3.1.4 General Dynamics Robotic Systems’ Autonomous Navigation System (ANS)
- 3.1.5 General Dynamics Mobile Detection, Assessment, and Response System
- 3.2 Northrop Grumman
- 3.2.1 Northrop Grumman Andros
- 3.2.2 Northrop Grumman Caliber Robot Unmanned Ground Combat Vehicle
- 3.2.3 Northrop Grumman Caliber® T5 is a small EOD and SWAT Robot.
- 3.2.4 Northrop Grumman Remotec Wheelbarrow Mk9
- 3.2.5 Northrop Grumman Robot Products
- 3.2.6 Northrop Grumman Remote Ordnance Management System (ROMOTEC)
- 3.2.7 Northrop Grumman Unmanned Ground Vehicles
- 3.2.8 Northrop Grumman Wheelbarrow - Reach and Payload Capability At A Distance
- 3.2.9 Northrop Grumman Wheelbarrow’s Future
- 3.3 Carnegie Mellon Crusher
- 3.3.1 Carnegie Mellon Gladiator TUGV
- 3.3.2 Carnegie Mellon Dragon Runner
- 3.4 iRobot IOD Robot Detection and Prevention
- 3.4.1 iRobot HazMat Technicians Controls
- 3.4.2 iRobot First Responders Controls
- 3.4.3 iRobot Daredevil
- 3.4.4 iRobot® 500 PackBot® with Mapping Kit
- 3.4.5 iRobot Advanced Platforms
- 3.4.6 iRobot RedOwl: Multi-Sensor Sniper Detection and Targeting
- 3.4.7 iRobot Nostra: Power System Condition Monitoring and Prognostics
- 3.4.8 iRobot Health Monitoring and Vehicle Self-Diagnosis for iRobot® PackBot® EOD
- 3.4.9 iRobot SUGV
- 3.4.10 iRobot and Boeing SUGV (Small Unmanned Ground Vehicle)
- 3.4.11 iRobot 320 SUGV
- 3.4.12 iRobot 310 SUGV
- 3.4.13 iRobot Packbot for Infantry Troops
- 3.5 Innovative Response Technologies Remote Ordnance Management System
- 3.6 BAE Systems Crusher and ARV Armed Robotic Vehicle
- 3.7 Pearson Engineering
- 3.8 Samsung Techwin SGR-A1 Sentry Guard Robot
- 3.9 iRobot 710 Warrior
- 3.10 Exponent Agile Remote Controlled Robots
- 3.11 iRobot Surveillance Military Robots
- 3.11.1 iRobot Research / iRobot Collaborative Systems
- 3.11.2 iRobot LANdroids Robot
- 3.12 Northrop Grumman Remotec Andros Battlefield Assist Robots
- 3.13 Gostai
- 3.13.1 Gostai Jazz Security Autonomous
- 3.13.2 Gostai Jazz Security Advanced Features
- 3.13.3 Gostai Jazz Security
- 3.13.4 Gostai Jazz Security Checking On A Place
- 3.13.5 Gostai Jazz Security Instead Of Fixed Video Surveillance Cameras
- 3.13.6 Jazz Security Replaces A Watchman
- 3.14 Thales Group Mini UAV and UGVs
- 3.14.1 Thales Group Ground Alerter 10
- 3.14.2 Thales Group Ground Master 400 (GM 400)
- 3.14.3 Thales Group Ground Smarter 1000
- 3.15 Vecna Technologies
- 3.16. Boston Dynamics
- 3.16.1. Boston Dynamics BigDog - Rough-Terrain Robot
- 3.16.2. Boston Dynamics RHex Rugged Man-Portable Robot
- 3.17. First-Response Robotics Hazardous Environment Robotic Observer (H.E.R.O.)
- 3.18. QinetiQ / Foster Miller TALON
- 3.19. Telerob tEODor
- 3.20. Telemax
- 3.20.1. Telerob OSCAR
- 3.20.2. Telerob Unmanned System For Response Forces
- 3.21. TechnoRobot RiotBot
- 3.21.1. TechnoRobot Non-lethal Support Robot
- 3.21.2. TechnoRobot RiotBot Highly Mobile Support Robot
- 3.21.3. TechnoRobot Remotely Operated Robot
- 3.22. Trenchers and Robots 400 to 2,500 Pounds
- 3.23. BAE Systems Unmanned Ground Vehicles
- 3.23.1. BAE Systems Armed Robotic Vehicle
- 3.23.2. BAE Systems Black Knight
- 3.23.3. BAE Systems Gladiator Remote Robotic Control
- 3.23.4. BAE Systems Gladiator Tactical Unmanned Ground Vehicle (TUGV)
- 3.23.5. BAE Systems Unmanned Ground Vehicles
- 3.23.6. BAE Systems Armed Robotic Vehicle
- 3.23.7. BAE Systems Black Knight
- 3.24. Allen Vanguard Remotely Operated Vehicles
- 3.24.1. Allen Vanguard Digital Vanguard ROV
- 3.24.2. Allen Vanguard Defender ROV
- 3.24.3. Allen Vanguard 2G Command Console
- 3.24.4. Allen Vanguard VBIED VICTOR Response
- 3.24.5. Allen Vanguard / HMS / The VICTOR VBIED Solution
- 3.25. Ditch Witch Inc. Robo Trencher
- 3.26. iRobot Sentinel: A System for the Teleoperated Control of Mobile Robots
- 3.26.1. iRobot Collaborative Engagement Of Unmanned Systems
- 3.26.2. iRobot Semi-Autonomous Operations: Wayfarer
- 3.27. Bug Like Robots to Five Pounds
- 3.28. iRobot 110 FirstLook Small, Throwable Robot
- 3.29. BAE Systems Ant Size Robot
- 3.30. Kuchcera Defense Systems Under Vehicle Inspection Platform
- 3.31. Boston Dynamics RHex
- 3.32. Recon Robotics Throwbot
- 3.33. Omnitech Toughbot
- 3.34. Hydrema Joint Stock Co. Mine Area Clearance Equipment
- 3.35. Lockheed Martin Mule Heavyweight Military Robot Unmanned Transport
- 3.36. Marine Glider Systems
- 4. MILITARY ROBOT TECHNOLOGY
- 4.1 Military Robot Technology Enablers
- 4.1.1 Military Robot Logistics
- 4.2 MRAP ATV: Requirements and Contenders
- 4.3 Military Robot Enabling Technology
- 4.4 Intel Integrated Circuit Evidence-Based Innovation
- 4.4.1 Open Robotic Control Software
- 4.4.2 Military Robot Key Technology
- 4.4.3 PC-Bots Visual Simultaneous Localization & Mapping
- 4.5 Advanced Robot Technology: Navigation, Mobility, And Manipulation
- 4.5.1 Robot Intelligence Systems
- 4.5.2 Real-World, Dynamic Sensing
- 4.6 User-Friendly Interfaces
- 4.6.1 Tightly-Integrated, Electromechanical Robot Design
- 4.7 Field Based Robotics Iterative Development
- 4.7.1 Next-Generation Products Leverage Model
- 4.7.2 Modular Robot Structure And Control
- 4.7.3 Lattice Architectures
- 4.7.4 Chain / Tree Architectures
- 4.7.5 Deterministic Reconfiguration
- 4.7.6 Stochastic Reconfiguration
- 4.7.7 Modular Robotic Systems
- 4.8 Intel Military Robot Cultivating Collaborations
- 4.9 Hitachi Configuration Of Robots Using The SuperH Family
- 4.9.1 Hitachi Concept of MMU And Logic Space
- 4.9.2 Robotic Use of Solid State Thin Film Lithium-Ion Batteries
- 4.10 Network Of Robots And Sensors
- 4.10.1 Sensor Networks Part Of Research Agenda
- 4.10.2 Light Sensing
- 4.10.3 Acceleration Sensing
- 4.10.4 Chemical Sensing
- 4.11 Military Robot Technology Functions
- 4.12 Carbon Nanotube Radio
- 4.13 Military Robot Funded Programs
- 4.13.1 Army Brigade Combat Team Modernization
- 4.13.2 XM1216 Small Unmanned Ground Vehicle (SUGV)
- 4.13.3 UUV Sub-Pillars
- 4.13.4 Hovering Autonomous Underwater Vehicle (HAUV)
- 4.13.5 Alliant
- 4.13.6 ATSP is a Government-wide contracting vehicle
- 4.13.7 Quick, efficient contracting vehicle
- 4.13.8 Facilitates technology and insertion into fielded systems
- 4.13.9 Access to all Northrop Grumman sectors
- 4.14 iRobot Technology
- 4.14.1 iRobot AWARE Robot Intelligence Systems
- 4.14.2 iRobot Real-World, Dynamic Sensing.
- 4.14.3 iRobot User-Friendly Interface
- 4.14.4 iRobot Tightly-Integrated Electromechanical Design.
- 4.15 Evolution Robotics Technology Solutions Evolution Robotics Example Applications
- 5 MILITARY ROBOTS COMPANY PROFILES
- 5.1 AB Precision (Poole) Ltd
- 5.1.1 AB Precision (Poole) Ltd Dragon (ABL900) de-armer
- 5.1.2 AB Precision (Poole) Ltd Limpet Mine Disposal Equipment
- 5.1.3 AB Precision (Poole) Ltd IED disruptor devices
- 5.1.4 AB Precision (Poole) Ltd Recoilless disruptors
- 5.1.5 AB Precision (Poole) Ltd Explosive Ordnance Disposal (EOD) Equipment
- 5.2 Allen Vanguard
- 5.2.1 Allen Vanguard R&D
- 5.2.2 Allen-Vanguard Introduces Modular New EOD Tactical Suit System For Mobile Counter-IED
- 5.3 BAE Systems
- 5.3.1 BAE Systems Organization
- 5.3.2 BAE Systems Performance
- 5.3.3 BAE Systems Key Facts
- 5.3.4 BAE Systems Strategy
- 5.3.5 BAE Systems Operational Framework
- 5.3.6 Key Performance Indicators (KPIs)
- 5.3.7 BAE Systems Risk Management
- 5.3.8 BAE Systems Orders
- 5.3.9 BAE Systems Received $313 Million Contract for Continued Research and Development of PIM
- 5.3.10 BAE Systems’ Paladin Integrated Management
- 5.3.11 BAE Systems Awarded £46m Contract To Support Royal Navy’s Type 45 Sampson Radars
- 5.4 Beijing Defense
- 5.4.1 Beijing Defense Counter IED products
- 5.4.2 Beijing Defense EOD and IED Disposal Equipment
- 5.4.3 Beijing Defense Bomb Search And Detection Systems
- 5.5 Boston Dynamics
- 5.6 Carnegie Mellon University
- 5.6.1 Carnegie Mellon School of Computer Science (SCS)
- 5.7 Chemring EOD Limited
- 5.7.1 Chemring EOD Limited Initiation Systems / Exploders
- 5.7.2 Chemring EOD Limited ROV Integration Packages
- 5.7.3 Chemring EOD Limited Security: VehicleScan - Under Vehicle Surveillance Systems
- 5.8 DCD-DORBYL (Pty) Ltd) / RSD (the Rolling Stock and Defense Division
- 5.8.1 RSD Combat-Proven Landmine Detection Systems
- 5.8.2 RSD Ballistic Protection For Peacekeeping And Defense Operations
- 5.8.3 RSD Engineering For Various Defense Environments And Scenarios
- 5.9 Ditch Witch
- 5.10 First-Response Robotics
- 5.11 General Dynamics
- 5.11.1 General Dynamics Revenue
- 5.11.2 General Dynamics Rifleman Radio and GD300 Go to Afghanistan with U.S. Army’s 75th Ranger Regiment
- 5.11.3 General Dynamics Light Tactical Vehicles
- 5.11.4 General Dynamics Light Wheeled Armored Vehicles
- 5.11.5 General Dynamics Medium Wheeled Armored Vehicles
- 5.11.6 General Dynamics Infantry Fighting Vehicles / Medium Combat Vehicles
- 5.11.7 General Dynamics Light Combat Vehicles
- 5.11.8 General Dynamics Revenue
- 5.11.9 General Dynamics Mobile Military Bridge Systems
- 5.11.10 General Dynamics MTB - Modular Lightweight Bridge
- 5.11.11 General Dynamics European Land Systems
- 5.11.12 General Dynamics European Land Systems (GDELS)
- 5.12 Gostai
- 5.13 iRobot
- 5.13.1 iRobot Role In The Robot Industry
- 5.13.2 iRobot Robots
- 5.13.3 iRobot Home Cleaning Robots
- 5.13.4 iRobot SUGV (Small Unmanned Ground Vehicle).
- 5.13.5 iRobot FirstLook
- 5.13.6 iRobot Revenue Third-Quarter 2011
- 5.13.7 iRobot Government and Industrial 2011
- 5.13.8 iRobot $7.4 Million Order for Small Unmanned Ground Vehicles
- 5.13.9 iRobot Looks To Expand in Latin America and China
- 5.13.10 iRobot PackBots
- 5.14 Kongsberg
- 5.14.1 Kongsberg Key Orders for Maritime
- 5.14.2 Kongsberg Key Figures
- 5.15 Kuchcera Defense Systems
- 5.16 Lockheed Martin
- 5.16.1 Lockheed Martin Fourth Quarter and Full Year 2011 Results
- 5.16.2 Lockheed Martin Segment Results 2011
- 5.16.3 Lockheed Martin Aeronautics Segment Revenue
- 5.16.4 Lockheed Martin SYMPHONY Improvised Explosive Device Jammer Systems
- 5.16.5 Lockheed Martin Aeronautics Revenue
- 5.16.6 Lockheed Martin Electronic Systems
- 5.16.7 Lockheed Martin Electronic Systems Net sales
- 5.16.8 Lockheed Martin Electronic Systems Segment Revenue
- 5.16.9 Lockheed Martin Information Systems & Global Solutions
- 5.16.10 Lockheed Martin Space Systems
- 5.16.11 Lockheed Martin Corporation's Business Segment
- 5.16.12 Lockheed Martin Delivers Fourth Upgraded CBP P-3 Orion In Record Time
- 5.17 Mesa Associates
- 5.17.1 Mesa Robotics
- 5.18 Northrop Grumman
- 5.18.1 Northrop Grumman Supplies Marine Navigation Equipment
- 5.18.2 Northrop Grumman Recognized by UK Ministry of Defense for Role in Supporting Sentry AWACS Aircraft During Military Operations in Libya
- 5.18.3 Northrop Grumman Corporation subsidiary Remotec Inc. upgrade the U.S. Air Force fleet of Andros HD-1
- 5.18.4 Northrop Grumman NAV CANADA Supplier
- 5.18.5 Northrop Grumman Electronic Systems Segment
- 5.19 Pearson Engineering
- 5.20 QinetiQ North America
- 5.20.1 QinetiQ North America
- 5.20.2 QinetiQ Starts Spinoff from United Kingdom Ministry of Defense, Defense Evaluation and Research Agency (DERA)
- 5.20.3 QinetiQ / Foster Miller
- 5.20.4 QinetiQ / Foster Miller Financial Position
- 5.20.5 QinetiQ North America Order for 100 Dragon Runner 10Micro Robots:
- 5.20.6 QinetiQ / Automatika
- 5.20.7 QinetiQ Customer Base
- 5.20.8 QinetiQ Revenue
- 5.21 re 5-122
- 5.22 Recon Robotics
- 5.23 TechnoRobot
- 5.24 Telerob 5-130
- 5.25 Thales Group
- 5.25.1 Thales Core Businesses
- 5.25.2 Thales: - A Global Player
- 5.25.3 Thales Facts and Figures
- 5.25.4 Thales Innovation
- 5.25.5 Thales Key Technology Domains
- 5.25.6 Thales Open Research
- 5.25.7 Thales Stance on Environment
- 5.25.8 Thales Processes
- 5.25.9 Thales Product design
- 5.25.10 Thales Site Management
- 5.25.11 Thales Alenia Space Integration Of Service Module For The Fourth ATV
- 5.25.12 Thales Sonar ‘Excels’ In Anti-Submarine Warfare Exercise
- 5.26 Vecna Technologies
- 5.27 Military Robot Companies
- 6. MILITARY ROBOT CONTRACTS
- 6.1.1 SPAWAR
- 6.1.2 Navy Explosive Ordnance Disposal
- 6.1.3 Future Combat Systems Program Cuts
- 6.1.4 U.S. Army Small Unmanned Ground Vehicle (SUGV)
- 6.2 GCV Created Due To Termination Of The Future C Combat Systems And Its Former Manned Ground Vehicles
- 6.2.1 Army To End Robotic Vehicle, Aircraft Efforts
- 6.2.2 MULE Termination
- 6.2.3 Armed Robotic Vehicle Assault (Light) Continuation
- 6.2.4 Robotic Systems Chartered by JPO
- 6.2.5 U.S. Army Small Unmanned Ground Vehicle
- 6.3 Selected US 2012 Military Budget for Robotics
- 6.3.1 Defense Advanced Research Projects Agency, DARPA Tactical Teams
- 6.4 US Military Budget 2012
- 6.4.1 Report on Deployment of Assets and Personnel to Libya
- 6.5 Customers For Government Robotic Products, And Research And Development Contracts:
- 6.5.1 General Dynamics Land Systems $24 Million Contract To Supply Commanders Remote Operated Weapons
- 6.5.2 Kongsberg and General Dynamics co-producing CROWS and CROWS II
- 6.5.3 General Dynamics Awarded $24 Million to Provide Remote Weapon Systems That Protect Tank Commanders
- 6.5.4 Kongsberg
- 6.5.5 Vulcan Unmanned Maritime Vehicle (UMV) And Unmanned Ground Vehicle (UGV) Programs
- 6.5.6 DARPA End-To-End Unmanned Vehicle System Solution
- 6.5.7 Unmanned Vehicles UMV and UGV Submarkets
- 6.5.8 Allen-Vanguard Spares For Symphony Electronic Counter Measures (ECM) Program
- 6.6 Military / Government and University Agencies
- 6.7 Military Robots Contracts
- 6.7.1 Talon
- 6.7.2 American Reliance Solution Found for Battlefield Robot Control Problem
- 6.7.3 QinetiQ NA Ships First-Responder Robots to Navy
- 6.7.4 iRobot Wins $60M Army Contract to Develop Warrior Robot
- 6.7.5 iRobot Wins $286 Million U.S. Army Contract
- 6.7.6 Counter Radio-Controlled Improvised Explosive Device Electronic Warfare Spiral 3 systems ("CREW3"
- 6.7.7 U.S. Army Has Agreed To Buy Up To 7,500 Electronic Bomb Jammer Systems From Its Partner Lockheed Martin Allen-Vanguard
- 6.7.8 Jan. 31, 2008 Allen-Vanguard Confirms U.S. Department of Defense Intent To Establish an IDIQ Contract For Up to 7,500 Symphony IED Countermeasure Systems
- 6.7.9 iRobot
- 6.7.10 iRobot Order for Six Seagliders™ from the University of Western Australia
- 6.7.11 iRobot Corp. (Nasdaq: IRBT) Order Totaling $16.8 million from the U.S. Army Program Executive Office for Simulation, Training, and Instrumentation (PEO STRI)
- 6.7.12 General Dynamics Combat Autonomous Mobility System (CAMS)
- 6.7.13 Robotic Technology Robot
- List of Tables and Figures
- Table ES-1
- Military Robots Market Driving Forces
- Figure ES-2
- Military Ground Robots Market Shares, Dollars, Worldwide, 2011
- Figure ES-3
- Military Robot Market Forecasts, Shipments, Dollars, Worldwide, 2012-2018
- Figure 1-1
- US Unmanned Vehicle Ground Domain Performance
- Table 1-2
- US Military Modernization Equipment Priorities, 2012
- Figure 1-3
- Cultural and Military Structural Issues
- Figure 1-4
- Shift From Manned Combatant Role to Unmanned
- Autonomous Systems
- Figure 1-5
- Army Agile Process
- Figure 1-6
- US Army Modernization 2012
- Figure 1-6
- US Army and Navy Budget Requests
- Table 1-7
- US Army Reforming Defense Acquisition
- US Army Reducing Ground Forces by 2016
- Table 1-8
- US Army Reducing Ground Forces by 2016
- Table 1-9
- Military Robot Applications
- Table 1-9 (Continued)
- Military Robot Applications
- Table 1-10
- Military Armed Robotic Applications
- Table 1-11
- What the Soldier Wants In Robotic Systems
- Figure 1-12
- Telerob Explosive Observation Robot and Ordnance Disposal Unit
- Figure 1-13
- Telerob Explosive Ordnance Disposal EOD System For
- Operation In Confined Areas
- Figure 1-14
- QinetiQ North America TALON® Robots Universal
- Disruptor Mount (UDM)
- Figure 1-15
- Next-Generation General Dynamics
- Figure 1-16
- US Army UGV Roadmap RS-JPO Structure
- Table 2-1
- Military Robots Market Driving Forces
- Figure 2-2
- Military Ground Robots Market Shares, Dollars, Worldwide, 2011
- Table 2-3
- Military Ground Robots Market Shares, Dollars, Worldwide, 2011
- Figure 2-4
- General Dynamics TAC-C Robot
- Figure 2-5
- Next-Generation General Dynamics Robots
- Table 2-6
- General Dynamics Near Autonomous Unmanned Systems
- (NAUS) - Advanced Technology Objective (NAUS-ATO)
- Figure 2-7
- Northrop Grumman Remotec HD-1
- Figure 2-8
- BAE Gladiator is a Tactical Unmanned Ground Vehicle (TUGV)
- Figure 2-9
- Lockheed Martin Electronic Systems Segment Global Presence
- Table 2-10
- Allen Vanguard Digital Bomb Disposal Robot System Features
- Figure 2-11
- Allen Vanguard Defender ROV
- Figure 2-12
- Military Robot Market Forecasts, Shipments, Dollars,
- Worldwide, 2012-2018
- Table 2-13
- Military Robot Market Forecasts, Shipments, Dollars and Unit,
- Worldwide, 2012-2018
- Figure 2-14
- US Army Modernization Positioning
- Figure 2-15
- Super Soaker vs. R.C. Glider
- Figure 2-16
- Mission Specific Military Robot Unmanned Systems by Weight Class
- Figure 2-17
- Unmanned Ground Systems US Army Priority Roadmap
- Figure 2-18
- Tactical Micro Military Robot Market Forecasts, Shipments,
- Dollars, Worldwide, 2012-2018
- Figure 2-20
- SUGV and Small 31 to 400 Pound Military Robot Market
- Forecasts, Shipments, Dollars, Worldwide, 2012-2018
- Figure 2-21
- Small / Medium 401 to 2,500 Pound Military Robot Market
- Forecasts, Shipments, Dollars, Worldwide,
- 2012-2018
- Figure 2-22
- Large Unmanned Military Robot Market Forecasts,
- Shipments, Dollars, Worldwide, 2012-2018
- Table 2-23
- Military Robots Shipments, Market Forecast Units,
- Worldwide, 2012-2018
- Table 2-24
- Military Robots Light
- Table 2-25
- Military Robots Medium
- Table 2-26
- Military Unmanned Ground Vehicles Heavy
- Table 2-27
- Military Unmanned Ground Vehicles Large
- Figure 2-28
- Mission Specific Military Unmanned Ground Vehicles by
- Weight Class
- Table 2-29
- Military Robots Definitions of Systems By US Army UGV Roadmap
- Figure 2-30
- Military Ground Robots In Inventory: US
- Figure 2-31
- Military Ground Robots to Purchase: US
- Figure 2-32
- US Military Services Savings Categories
- Figure 2-33
- Military Robot US Liaison Officers
- Table 2-34
- Tiers of US Army UGVs
- Figure 2-35
- US Robot Systems Associated with Force Application
- Table 2-36
- Use of Robots for Protection
- Table 2-37
- US Army Robot Systems Associated with Protection
- Table 2-38
- Named Unmanned Systems Associated with Force
- Support and Command and Control
- Table 2-39
- Named Unmanned Systems Associated with Force Support
- Figure 2-40
- Robots Associated with Net Centric Systems
- Figure 2-41
- Robot Systems Associated with Battle Space Awareness
- Figure 2-42
- Robot Systems Associated with Battle Space Awareness
- Figure 2-43
- US Protection Modernization Strategy
- Table 2-44
- US Army Revised Military Robotics Vision
- Figure 2-45
- Military Robot Regional Market Segments, Dollars, 2011
- Table 2-46
- Military Robot Regional Market Segments, 2011
- Table 3-1
- Benefits of General Dynamics DRS Robotics Systems to the Soldier
- Figure 3-2
- General Dynamics Robotic Systems (GDRS) Advanced
- Technology Positioning
- Figure 3-3
- General Dynamics TAC-C Robot
- Figure 3-4
- Next-Generation General Dynamics Robots
- Table 3-5
- General Dynamics Near Autonomous Unmanned
- Systems (NAUS) - Advanced Technology Objective (NAUS-ATO)
- Figure 3-6
- General Dynamics Mobile Detection, Assessment,
- and Response System
- Figure 3-7
- Northrop Grumman Andros
- Figure 3-8
- Northrop Grumman REMOTEC T5 CALIBER®
- Figure 3-9
- Northrop Grumman Remotec Wheelbarrow Revolution
- Figure 3-10
- Northrop Grumman REMOTEC Mk3 CALIBER®
- Figure 3-11
- Northrop Grumman Remote Ordnance Management
- System (ROMOTEC)
- Figure 3-12
- Northrop Grumman Unmanned Ground Vehicles
- Figure 3-13
- Carnegie Mellon Crusher Unmanned Ground Combat Vehicle
- Figure 3-14
- Carnegie Mellon Gladiator Tactical Unmanned Ground Vehicles
- Figure 3-15
- Carnegie Mellon Dragon Runner Unmanned Ground Vehicles
- Table 3-16
- iRobot HazMat Technicians Controls
- Table 3-17
- iRobot 510 Packbot Characteristics
- Table 3-18
- iRobot First Responders Controls
- Table 3-19
- iRobot 510 Packbot Characteristics
- Table 3-20
- iRobot Combat Engineers Controls
- Table 3-21
- iRobot 510 Packbot Characteristics
- Table 3-22
- iRobot Daredevil Goals
- Table 3-23
- iRobot 500 PackBot Needs
- Table 3-24
- iRobot 500 PackBot Goals
- Table 3-25
- iRobot RedOwl Goals
- Table 3-26
- iRobot Nostra Goals
- Table 3-27
- iRobot Health Monitoring Goals
- Figure 3-28
- iRobot SUGV
- Figure 3-29
- SUGV (Small Unmanned Ground Vehicle)
- Table 3-30
- iRobot SUGV Characteristics
- 39
- Table 3-31
- iRobot 320 SUGV Controls
- Table 3-32
- iRobot BCTM SUGV Controls
- Table 3-33
- iRobot 320 SUGV Characteristics
- Table 3-34
- iRobot 310 SUGV Controls
- Table 3-35
- iRobot 320 SUGV Characteristics
- Figure 3-36
- iRobot Chemical, Biological, Radiological, Nuclear Robot
- Figure 3-37
- iRobot 510 PackBot
- Table 3-38
- iRobot 510 Packbot Features
- Figure 3-39
- Innovative Response Technologies Remote
- Ordnance Management System
- Figure 3-40
- BAE Systems ARV Armed Robotic Vehicle
- Figure 3-41
- BAE Systems ARV Armed Robotic Vehicle RSTA Specifications
- Figure 3-42
- Pearson Engineering Assault Breacher Vehicle
- Figure 3-43
- iRobot 710 Warrior
- Table 3-44
- iRobot 710 Warrior Controls
- Table 3-45
- iRobot 710 Warrior Characteristics
- Figure 3-46
- iRobot and Foster Miller Man Transportable Robotic System
- Figure 3-47
- Exponent Agile Remote Controlled Robots
- Figure 3-48
- iRobot 210 Negotiator
- Table 3-49
- iRobot 210 Negotiator Controls
- Table 3-50
- iRobot 210 Negotiator Characteristics
- Table 3-51
- iRobot Landroid Goals
- Figure 3-52
- Northrop Grumman Remotec Andros™ HD Series
- Figure 3-53
- Northrop Grumman REMOTEC ANDROS™ F6 Series
- Figure 3-54
- Gostai Telesurveillance Robot
- Figure 3-55
- Gostai - A watchman that never sleeps
- Figure 3-56
- Gostai Jazz Security
- Table 3-57
- Thales Group Ground Master 400 Features
- Table 3-58
- Thales Group Ground Master 400 Facts
- Table 3-59
- Thales Group Ground Smarter 1000 Features
- Figure 3-60
- Thales Group Eurobot Ground Prototype (EGP)
- Figure 3-61
- Battlefield Extraction Robot
- Table 3-62
- iRobot 510 Packbot Characteristics
- Table 3-63
- iRobot EOD Technician Controls
- Table 3-64
- iRobot 510 Packbot Characteristics
- Table 3-65
- iRobot Bomb Squads Controls
- Table 3-66
- iRobot 510 Packbot Characteristics
- Figure 3-66
- Boston Dynamics Robotics
- Figure 3-67
- Boston Dynamics LS3 - Legged Squad Support Systems
- Figure 3-68
- Boston Dynamics BigDog - Rough-Terrain Robot
- Figure 3-69
- Boston Dynamics LittleDog - The Legged Locomotion Learning Robot
- Figure 3-70
- Boston DynamicsPETMAN - BigDog gets a Big Brother
- Figure 3-71
- Boston Dynamics RHex Devours Rough Terrain
- Table 3-72
- First-Response Robotics Hazardous Environment
- Robotic Observer HAZMAT Applications
- Figure 3-73
- First-Response Robotics Hazardous Environment
- Robotic Observer
- Table 3-74
- First-Response Robotics Hazardous Environment
- Robotic Observer Tactical Preparedness
- Figure 3-75
- QinetiQ World-beating robots designed to do the dirty work
- Table 3-76
- QinetiQ Family Of Robots Positioning
- Table 3-77
- QinetiQ Portfolio
- Figure 3-78
- Telerob tEODor
- Figure 3-79
- Telemax
- Figure 3-80
- Telerob OSCAR
- Figure 3-81
- Telerob TEL600
- Figure 3-82
- Telerob System Solutions
- Figure 3-83
- Telerob Service Robot NBCmax
- Figure 3-84
- TechnoRobot RiotBot
- Figure 3-85
- TechnoRobot RiotBot Six-Wheel-Drive Capabilities,
- Can Reach Speeds Exceeding 20km/h.
- Figure 3-86
- BAE Systems Armed Robotic Vehicle
- Figure 3-87
- BAE Systems Black Knight
- Figure 3-88
- BAE Systems ARV Armed Robotic Technologies
- Advanced Technological Objective (ART-ATO)
- Figure 3-89
- BAE Systems Armed Robotic Vehicle
- Figure 3-90
- BAE Systems Black Knight
- Figure 3-91
- BAE Systems ARV Armed Robotic Technologies
- Advanced Technological Objective (ART-ATO)
- Table 3-92
- Allen Vanguard Digital Vanguard ROV Features
- Table 3-93
- Allen Vanguard Defender ROV Features
- Table 3-94
- Allen Vanguard 2G Command Console Features
- Table 3-95
- Allen Vanguard VBIED VICTOR Response Features
- Table 3-96
- Allen Vanguard / HMS / Solutions
- Figure 2-97
- Ditch Witch Inc. Robo Trencher
- Table 3-98
- iRobot Sentinel
- Table 3- 99
- iRobot Sentinel Goals
- Table 3-100
- iRobot Collaborative UGV Goals
- Table 3-101
- iRobot Semi-Autonomous Operation Goals
- Figure 3-102
- iRobot 110 FirstLook
- Table 3-103
- iRobot 110 First Look Controls
- Table 3-105
- iRobot 110 First Look Characteristics
- Figure 3-106
- BAE Military Robot in Development
- Figure 3-107
- Kuchcera Defense Systems Under Vehicle Inspection Platform
- Figure 3-108
- Boston Dynamics RiSE: The Amazing Climbing Robot
- Figure 3-109
- Boston Dynamics SquishBot - Advanced Chemistry
- Robot that Inches, Climbs and Deforms
- Figure 3-110
- Boston Dynamics RiSE: The Amazing Climbing Robot
- Figure 3-111
- Recon Robotics Throwbot
- Figure 3-112
- Omnitech Toughbot
- Figure 3-113
- Hydrema Joint Stock Co. Mine Area Clearance Equipment
- Figure 3-114
- Lockheed Martin Mule
- Figure 3-115
- Marine Glider Systems
- Figure 4-1
- Military Robot Technology Enablers
- Table 4-2
- Military Robot Technology Characteristics
- Figure 4-3
- Military Ground Robot Technology Enablers
- Table 4-4
- US Army Military Robot Logistics Positioning
- Figure 4-5
- Robot Systems Associated with Force Application Description
- Figure 4-6
- Robotic Performance Characteristics
- Table 4-7
- Military Robotics Enabling Technology
- Table 4-8
- Military Robots Development Challenges
- Table 4-9
- Military Robot Integrated Circuit-Based Innovation Functions
- Table 4-10
- Military Robot Key Technology
- Table 4-11
- Robot Communications Key Technology
- Table 4-12
- Military Robot Key Navigation Technologies
- Table 4-13
- Human-Robot Interaction
- Table 4-14
- Visual Simultaneous Localization & Mapping
- Functions Relevant to Robotics
- Figure 4-15
- Hitachi Modular Robot Configuration
- Table 4-16
- Military Robot Key Product Technology Factors
- Table 4-16 (Continued)
- Military Robot Key Product Technology Factors
- Table 4-17
- Military Robot Technology Functions
- Table 4-17 (Continued)
- Military Robot Technology Functions
- Table 4-18
- Missions (UUV “Sub-Pillars”) In Priority Order
- Figure 4-19
- UUVMP Vision
- Table 4-20
- Alliant Features:
- Table 4-20 (Continued)
- Alliant Features:
- Figure 4-21
- Evolution Robotics Technology Solutions
- Figure 4-22
- Evolution Robotics Object Recognition
- Table 4-23
- Evolution Robotics Applications
- Table 5-1
- Global Leader in Counter-IED
- Table 5-2
- Allen Vanguard Corporate Brands
- Table 5-3
- Allen Vanguard R&D Directions
- Table 5-4
- BAE Systems Company Positioning
- Figure 5-5
- BAE Systems Strategy
- Figure 5-14
- BAE Systems Contract for PIM
- Table 5-15
- Beijing Defense Key Business Areas
- Table 5-16
- Chemring EOD Limited Initiation Systems / Exploders
- Figure 5-17
- General Dynamics Divisions
- Figure 5-18
- General Dynamics Eagle
- Figure 5-19
- General Dynamics Duro
- Figure 5-20
- General Dynamics Piranha 3
- Figure 5-21
- General Dynamics Pandur 6 x 6
- Table 5-22
- General Dynamics Pandur 6 x 6 Features
- Figure 5-23
- General Dynamics Pandur 8 x 8
- Table 5-24
- General Dynamics Pandur 8 x 8 Features
- Figure 5-25
- General Dynamics Piranha 5
- Figure 5-26
- General Dynamics Ascod
- Figure 5-27
- General Dynamics SK 105
- Table 5-28
- General Dynamics SK 105 Features
- Figure 5-29
- General Dynamics M3 - A Synergy of Experience and
- Modern Technology
- Figure 5-30
- General Dynamics IRB - Combat Proven Bridge Equipment
- Table 5-31
- General Dynamics Bridge Equipment Features
- Figure 5-32
- General Dynamics REBS - The Bridge for the Future Army
- Figure 5-33
- General Dynamics IAB - A light weight bridge for several uses
- Figure 5-34
- General Dynamics EAGLE Armored Patrol Vehicle
- Figure 5-35
- Kongsberg Key Orders for Maritime
- Figure 5-36
- Kongsberg Crows Initiative
- Figure 5-37
- Lockheed Martin Segment Positioning
- Figure 5-38
- Lockheed Martin Aeronautics Segment Positioning
- Figure 5-39
- Lockheed Martin Aeronautics Segment Portfolio
- Figure 5-40
- Lockheed Martin Aeronautics C130 Worldwide Airlift
- Figure 5-41
- Lockheed Martin Aeronautics Falcon Fighter
- Figure 5-42
- Lockheed Martin Electronic Systems Portfolio
- Figure 5-43
- Lockheed Martin Electronic Systems Segment
- Figure 5-44
- Lockheed Martin Electronic Systems Segment Revenue
- Figure 5-45
- Lockheed Martin Information Systems Segment Revenue
- Figure 5-46
- Lockheed Martin Space Systems Segment Revenue
- Figure 5-47
- Northrop Grumman Systems Segments
- Figure 5-48
- Northrop Grumman Portfolio
- Figure 5-49
- Northrop Grumman Segment Revenue Growth
- Figure 5-50
- Northrop Grumman Aerospace Systems Segment
- Figure 5-51
- Northrop Grumman Electronic Systems Segment
- Figure 5-52
- QinetiQ Dragon Runner Urban Operations Rugged Ultra-
- Compact, Lightweight And Portable Reconnaissance Robot
- Table 5-53
- QinetiQ Customer Base
- Figure 5-54
- Re2 Open Architecture for Robots
- Figure 5-55
- Technorobot
- Figure 5-56
- Technorobot Collaborations
- Table 5-57
- Thales Key Technology Domains
- Figure 5-58
- Thales Measurable Environmental Targets
- Table 5-59
- Vecna Technologies hydraulic end effector Specifications
- Table 6-1
- Military Robot Research and Development Projects
- Figure 6-2
- iRobot Government Agencies Served
- Figure 6-3
- Lockheed Martin Multifunction Utility Logistics Equipment UGV -- MULE
- Figure 6-4
- JPO Robotic Systems
- Figure 6-5
- Army Modernization Aims
- Table 6-6
- Unmanned Vehicles UMV and UGV Submarkets
- Table 6-7
- Unmanned Ground Vehicles (UGVs) Leading
- Technologies And Subsystems
- Table 6-8
- UUV Programmes
- Table 6-9
- Military / Government and University Agencies
List of Tables
List of Figures
Upcoming Reports:
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