Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
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UAS ROADMAP <strong>2005</strong><br />
In Phase I, an experimental unmanned vehicle-based robot with a RSTA package and a Javelin missile<br />
were demonstrated. The culminating demonstration was completed in FY2002 with the successful launch<br />
<strong>of</strong> 19 Light Anti-armor Weapon (LAW) rockets and one Javelin missile. Phase II <strong>of</strong> the demonstration<br />
occurred in FY2003, successfully firing three Javelin missiles, three Hellfire missiles, and over 500 7.62<br />
mm rounds from the M240 machine gun. Phase III involved firing a Mk-19 Grenade Launcher from a<br />
HMMWV-based robot while it was teleoperated (shoot on the move). Coordinates <strong>of</strong> the target, provided<br />
by a small unmanned aircraft were fed into the system, which then calculated the firing solution and<br />
engaged the target. The Phase III experiment occurred in September 2004.<br />
UA-UGV Cooperative Development<br />
Background: The UA-UGV cooperative development program is a USAF robotics R&D effort to<br />
develop and extend technologies to enhance UA/UGV capabilities through cooperative behaviors. This<br />
initiative captures the lessons learned in the 2003 STORK demonstration and seeks to advance the<br />
combined potential <strong>of</strong> UA and UGVs interoperating together in a common network to increase mission<br />
effectiveness. Planned development includes: (1) a JAUS/NATO STANAGS-compliant UA, (2)<br />
enhanced teleoperation and autonomy <strong>of</strong> low-cost rotary-wing UA, (3) an aerial communications relay to<br />
extend the radio range <strong>of</strong> UGVs, (4) insertion <strong>of</strong> aerial imagery into UGVs for map/model building and<br />
situational awareness, (5) precision UGV marsupial emplacement/recovery using a rotary-wing UA, (6)<br />
terrain modeling for UGV path planning – adapting existing technology to JAUS-compatibility, and (7)<br />
visual recognition for obstacle avoidance/intruder detection. A range <strong>of</strong> JAUS compliant UA/UGV<br />
platforms are envisioned. A summary <strong>of</strong> two potential platforms follows:<br />
Characteristics <strong>of</strong> Possible Platforms:<br />
R-Max UA ARTS UGV<br />
Size 12’ x 2’ x 3.5’ Size 9.5’ x 5.5’ x 6.5’<br />
Main Rotor Diameter 10 ft Weight 8100 lb<br />
Tail Rotor Diameter 21 in Ground Clearance 14 in<br />
Performance <strong>of</strong> Possible Platforms:<br />
Maximum Payload 68 lb Maximum Payload 3500 lb<br />
Flight Duration 60 mins Endurance 6-8 hrs<br />
Line <strong>of</strong> Sight Distance 492 ft Maximum Speed 8 mph<br />
Track Ground Pressure ~2 PSI<br />
Line <strong>of</strong> Sight Distance 1.5 miles<br />
UGV-UA Cooperative Development at SPAWAR <strong>Systems</strong> Center San Diego<br />
The UGV-UA cooperative development efforts at SPAWAR <strong>Systems</strong> Center San Diego (SSC-SD) are<br />
designed to take advantage <strong>of</strong> the 20 years <strong>of</strong> experience in ground and air unmanned systems, and the<br />
current SSC SD products including Multi-robot Operator Control Unit (MOCU) and MDARS-E.<br />
Development is taking place in several areas.<br />
The first area is the development <strong>of</strong> an Autonomous UAV Mission System (AUMS) for Vertical Take<strong>of</strong>f<br />
and Landing UA. The goal <strong>of</strong> the system is to allow a UA to be launched, recovered, and refueled by a<br />
host or stand-alone platform in order to provide force extension through autonomous aerial response. The<br />
recovery capability will be an integration <strong>of</strong> vision technologies from Carnegie Mellon University and the<br />
Jet Propulsion Laboratory as well as GPS technology from Geodetics, Inc. The system will operate with<br />
different manned and unmanned vehicles and will use the JAUS protocol and the SSC-SD MOCU<br />
command and control interface. AUMS may be modified for use by multiple ground and air platforms.<br />
Some <strong>of</strong> the near-term UA missions include reconnaissance, RF communications relays, overhead visual<br />
GPS augmentation, surveillance, psychological operations, and mine detection. Future uses include target<br />
designation and payload dispersal (i.e., submunitions, ThrowBots, sensors). Other benefits are seen in the<br />
APPENDIX J – UNMANNED GROUND VEHICLES<br />
Page J-9