Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
Unmanned Aircraft Systems Roadmap 2005-2030 - Federation of ...
You also want an ePaper? Increase the reach of your titles
YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.
UAS ROADMAP <strong>2005</strong><br />
ensure safe small UA operation in support <strong>of</strong> civil operations or in support <strong>of</strong> a combined arms task<br />
force.<br />
� Affordability. Affordability cannot be ignored. Just as technology might determine whether a system<br />
is practical, affordability determines whether a system is purchased. Lower costs for UA can<br />
determine the operational employment concepts. For example, if the cost to replace a UA is low<br />
enough, an item can become “attritable,” and even “expendable.” Small UA can benefit significantly<br />
from appropriate application <strong>of</strong> the technology as it relates to production costs.<br />
� Sensing. Sensing covers a significant set <strong>of</strong> issues from ISR to auto-target recognition to “see and<br />
avoid (S&A).” Improvements in miniaturization will push capability into smaller and smaller<br />
packages as time progresses. Already the capability available in a MQ-1Predator <strong>of</strong> ten years ago is<br />
available in the Shadow 200. This will continue with the potential for greater capabilities to migrate<br />
into the mini-UA and MAV. Such a transition must continue to be supported in order to improve<br />
product quality to the lowest levels. Affordability <strong>of</strong> this migration will also be important and tied to<br />
capabilities available in the commercial sector.<br />
Ground Station Command, Control, and Communications (C3)<br />
As the capabilities <strong>of</strong> the UA continue to improve; the capability <strong>of</strong> the command and control (C2)<br />
infrastructure needs to keep pace. There are several key aspects <strong>of</strong> the <strong>of</strong>f-board C2 infrastructure that are<br />
being addressed: a) man-machine interfaces, b) multi-aircraft C3, and c) target identification, weapons<br />
allocation and weapons release. The location <strong>of</strong> the C3 system can be on the ground, aboard ship, or<br />
airborne. The functions to be accomplished are independent <strong>of</strong> the location. UA hold the promise <strong>of</strong><br />
reduced operating and support (O&S) costs compared to manned aircraft. There are only small savings<br />
by simply moving the man from the cockpit <strong>of</strong> a large aircraft to the <strong>of</strong>f board C3 station. Currently, UA<br />
crews can consist <strong>of</strong> as many functions as sensor system operator, weapons release authority,<br />
communications <strong>of</strong>ficer, and a mission commander. All can be separate individuals. Applications to<br />
reduce these functional manpower positions into fewer positions are in its infancy. Improvements in<br />
aircraft autonomy to allow for fewer positions, or more aircraft controlled by the same positions are also<br />
in its infancy. One <strong>of</strong> the difficult issues being addressed is how the operator interacts with the aircraft:<br />
what information is presented to him during normal operations and what additional information is<br />
presented if an emergency occurs. Advanced interfaces are being explored in the DARPA UCAV<br />
programs. To date, the C3 stations being developed are aimed more at the test environment than the<br />
operational environment. The advanced interfaces take advantage <strong>of</strong> force feedback and aural cues to<br />
provide additional situational awareness to the system operators. Improvements should focus in the<br />
following areas:<br />
� Evolving functions <strong>of</strong> the UA. The UA must improve to higher levels <strong>of</strong> autonomy and the human to<br />
higher levels <strong>of</strong> management. This would migrate operational responsibility for tasks from the<br />
ground station to the aircraft, the aircraft gaining greater autonomy and authority, the humans moving<br />
from operators to supervisors, increasing their span <strong>of</strong> control while decreasing the manpower<br />
requirements to operate the UA.<br />
� Downsizing ground equipment. The control elements and functions <strong>of</strong> the early 1990s ground station<br />
equipment can now be accommodated into laptops. This trend will continue with miniaturization <strong>of</strong><br />
processing and memory storage devices. Consolidation <strong>of</strong> capabilities into smaller packages reduces<br />
production costs, logistics footprint and sustainment support costs.<br />
� Assured communication. The joint tactical radio system is expanding to encompass not only voice<br />
communications, but data links also. UA programs must assess their transition to the JTRS standard<br />
as technology becomes available through JTRS Cluster improvements. Since UA will become netcentric<br />
devices, UA programs must assess their vulnerabilities to network attack and provide<br />
appropriate levels <strong>of</strong> protection.<br />
� Displays. As the human interfaces with the UA at higher levels, the human must trust the UA to do<br />
more. To develop and keep that trust, the human must be able to determine the intent <strong>of</strong> the UA.<br />
APPENDIX D – TECHNOLOGIES<br />
Page D-8