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ScanEagle
was designed with removable avionics bay and two expansion slots
allowing seamless payload integration. An enhanced ScanEagle
was introduced by Insitu in August 2006, incorporating a redesigned
camera turret, enhanced infrared camera, and Mode C transponder.
The camera turret, utilizes the inertially stabilized turret
introduced in 2003, but will not require electronic stabilization
by software at the ground station. This will enable utilization
of images via Rover type
systems. The new turret will be able to house larger cameras,
which provides more options on payload camera integration.
In
August 2006 Insitu
has incorporated various new systems under the These changes
are currently included in the Block D upgrades program These
include the DRS Technologies E6000 infrared camera, improving
the UAV's capabilities from a 320x240 pixel resolution fixed
camera with an 18-degree field of view to a 640x480 camera,
with an increased resolution that supports a digital zoom view
of 7.5 degrees. A new inertially stabilized turret, offering
a factor of 5 improvement in disturbance rejection has also
been introduced. Custom designed, ultra-light Mode C Transponder,
is also becoming a standard issue on the ScanEagle. THis transponder
is programmable during flight and, as such, allows the vehicle
to become stealthy as necessary even at low altitudes. This
capability will help with aircraft deconfliction within Operation
Iraqi Freedom but will also enable easier integration of the
system into applications within the National Airspace or civilian
applications. Other changes include the introduction of video
transmitter system, Rover interoperability and in-flight fuel
measurement systems as well as a number of improvements for
reliability and modularity.
A
Block D prototype was recently tested in a basic configuration,
flying on a continuous, 22 hour mission. The company also announced
cooperation with ImSAR, for the development of a new micro SAR
prototype which could be introduced with the ScanEagle in the
future.
The Block D changes incorporate multiple product
enhancements including a new improved IR (infrared) camera with
a factor of 3 improvement in the resolution; a new inertially
stabilized turret with a factor of 5 improvement in disturbance
rejection; a custom, ultra-light, Mode C transponder to facilitate
airspace deconfliction; new video transmitter system; Rover
interoperability; in-flight fuel measurement systems; and numerous
improvements for reliability and modularity.
In early January
2007 Boeing Australia Limited announced it has been awarded
a contract to provide reconnaissance and surveillance services
to the Australian Army using the ScanEagle autonomous unmanned
aerial vehicle (UAV). The services provided by ScanEagle are
currently being used in southern Iraq by Australian soldiers
operating with the Overwatch Battle Group (West)-2 in Operation
Catalyst. By June 2007, the operation was expanded for six months,
to support te Australian troops deployed in Afghanistan under
a A$20 million program.
In February 2007
the ScanEagle UAV system has been qualified to comply with
NATO mandated unmanned aerial vehicle (UAV) interoperability
standard (known as STANAG
4586), establishing common specifications employed in ground
station system operating all UAVs used by NATO military forces.
STANAG compliance will enable existing and future deployed ScanEagles
to be operated with operational ground control stations such
as Army One as well as other STANAG qualified systems operated
by NATO member nations. The ScanEagle Vehicle Specific Module
and Multiple UAV Software Environment ground station were integrated
with the Common UAV Control Software package developed by CDL
Systems Ltd. employed with the "Army One" ground control
station. During the three hour test flight, the ScanEagle team
achieved Level 2 for the UAV and sensor system; Level 3 for
the onboard electro-optical camera and sensor system; and Level
4 for the UAV and payload control. Further tests employing multiple
ScanEagles and ground control stations are scheduled to validate
various autonomous functions.
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