INTEGRATED MISSION SOLUTIONS DD(X ... - Raytheon
INTEGRATED MISSION SOLUTIONS DD(X ... - Raytheon
INTEGRATED MISSION SOLUTIONS DD(X ... - Raytheon
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cantly greater capability from a ship perspective<br />
at significantly lower crew levels.”<br />
• Survivability “<strong>DD</strong>(X) will use a combination<br />
of passive and active means to<br />
fight in coastal (littoral) and other environments<br />
with incredible warfighting<br />
capabilities,” says Hoeffler.<br />
• Mobility “<strong>DD</strong>(X) will be designed to<br />
operate in forward areas for extended<br />
periods,” says Hoeffler. “It will have the<br />
ability to replenish underway—including<br />
long-range land attack projectiles. In<br />
addition, because of the way the ship is<br />
designed, it will have the ability to transit<br />
minefields and operate in other difficult<br />
littoral areas and do so with great success.”<br />
• Integrated Warfare Systems “If you<br />
look at ships today,” says Hoeffler, “land<br />
attack, anti-air warfare and anti-submarine<br />
warfare each are separate systems.<br />
On <strong>DD</strong>(X) we have fully integrated the<br />
capability that combines each of these<br />
domains into one cohesive system. We<br />
have a single integrated command center,<br />
such that the ship has the ability to<br />
think and fight in a multi-domain perspective:<br />
land attack, undersea warfare,<br />
anti-air warfare, information dominance,<br />
and so forth. It can look at all of those<br />
missions simultaneously and execute<br />
them with greater effectiveness. The<br />
technologies underpinning this architecture<br />
are truly revolutionary. This was in<br />
fact the major element of our proposal<br />
to the navy, to harness that revolution<br />
in technology.”<br />
The Role of <strong>Raytheon</strong> Integrated<br />
Defense Systems<br />
Reflecting back on the U.S.S. Monitor, one<br />
of the most important attributes that made<br />
it such a significant departure from conventional<br />
1860’s shipbuilding approaches is<br />
related not to the ship itself but to the manner<br />
in which it was created. It was designed<br />
and built by an independent contractor—<br />
John Ericsson—whose foresight, innovative<br />
ideas, and keen ability to engineer a truly<br />
well-integrated and highly effective surface<br />
combatant were unlimited by the traditional<br />
boundaries of naval ship design then in<br />
vogue. So too is the situation with <strong>DD</strong>(X)<br />
and <strong>Raytheon</strong>’s ongoing role in the project.<br />
Achieving all <strong>DD</strong>(X) objectives within a<br />
single naval vessel involves a myriad of<br />
complex integrated warfare systems and<br />
subsystems. Working in concert with the<br />
program’s prime contractor, Northrop<br />
Grumman Ship Systems and the Navy,<br />
<strong>Raytheon</strong> Integrated Defense Systems has<br />
been designated overall <strong>DD</strong>(X) electronic<br />
and weapon systems integrator, tasked with<br />
the responsibility of making certain that all of<br />
these concepts are transformed into reality.<br />
As the systems integrator for all shipboard<br />
electronics, missions systems engineering,<br />
software development and test<br />
and evaluation systems on the <strong>DD</strong>(X) program,<br />
<strong>Raytheon</strong> is facing some new and<br />
exciting challenges in the days ahead. Bestof-breed<br />
methodologies and approaches<br />
are being applied to the design of the<br />
<strong>DD</strong>(X) system and software architecture.<br />
<strong>Raytheon</strong> has been renowned for building<br />
shipboard radars, missiles, electronics and<br />
communications equipment for many years,<br />
but <strong>DD</strong>(X) is the first program in which the<br />
company has had the opportunity to put all<br />
the pieces together. The approach to designing<br />
a system architecture is essential to understanding<br />
how to put those pieces together.<br />
Using a side-step approach modeled after<br />
the George Mason University systems architecture<br />
design process, <strong>DD</strong>(X) system<br />
designers are defining all the parts of the<br />
system, the best ways to assemble all those<br />
parts, and the most suitable strategies for<br />
testing the collective system.<br />
George Mason University is one of the leaders<br />
in defining system engineering processes.<br />
<strong>DD</strong>(X) is combining that process with the<br />
DoD Joint Technical Architecture and the<br />
Navy Open Architecture precepts to create a<br />
system and software architecture that is easily<br />
accessible to team members and customers<br />
throughout the <strong>DD</strong>(X) distributed network.<br />
<strong>DD</strong>(X) system engineers will face some truly<br />
unique and exciting challenges ahead as<br />
they design a system architecture that will<br />
successfully integrate approximately 30<br />
major shipboard subsystems, including the<br />
Where We Are Today<br />
<strong>Raytheon</strong> engineers, who are spearheading<br />
Phase III of the <strong>DD</strong>(X) program, are creating<br />
the engineering development models<br />
(EDMs) that are described in this special<br />
edition of Technology Today. Developing the<br />
EDMs and testing them before actual ship<br />
construction begins in 2005 reduces<br />
risk and assures operational excellence<br />
Continued on page 15<br />
Systems Architecture<br />
radar, launchers, guns, navigation system<br />
and communications suite, most of which<br />
are being built by other contractors. The<br />
<strong>DD</strong>(X) system is the largest and most complex<br />
of its kind that <strong>Raytheon</strong> has ever built,<br />
employing technologies that go beyond<br />
anything used in today’s Navy. “We’re still<br />
trying to figure out how large the ship is<br />
going to be, how much equipment it will<br />
carry, how fast it will go”, said Brian Wells,<br />
<strong>Raytheon</strong> systems architect on <strong>DD</strong>(X). The<br />
new ships will be manned with approximately<br />
one-third the crew that currently<br />
operates the destroyers of today. To achieve<br />
such a high level of automation requires<br />
using new technologies like data fusion and<br />
intelligent agents that essentially behave<br />
like a person. Intelligent agents help the<br />
operator make decisions by collecting and<br />
analyzing information, plotting one or two<br />
courses of action and making recommendations,<br />
thereby reducing the amount of<br />
human involvement and the possibility of<br />
human error.<br />
An engineer’s dream, this program gives<br />
people a rare opportunity to be involved<br />
with the creation of a system from the early<br />
concept stages right on through to the final<br />
sell-off to the US Navy. The <strong>DD</strong>(X) program<br />
has placed <strong>Raytheon</strong> in the enviable role of<br />
a large systems integrator, a key factor in<br />
positioning the company to win contracts<br />
for which we might not otherwise have<br />
been considered. As an added benefit, the<br />
work being done on this program will give<br />
smaller programs the opportunity to capitalize<br />
on the technological and innovative<br />
strengths of <strong>DD</strong>(X). ■<br />
– Brian Wells<br />
summer 2003 5