STRENGTH
THROUGH COOPERATION
Military
Forces in the
Asia-Pacific Region
REVOLUTION
IN MILITARY AFFAIRS:
Thomas J. Welch
Evolution
One
aspect of the revolution in military affairs (RMA) is identifying
important trends of future warfare, by examining how the commercial
world and the U.S. military are coping with the changes to their environments.
For
the last 7 years the Office of Net Assessment, Department of Defense, has
focused on three major areas of change: the proliferation of advanced weapons
and associated military organizations and operational concepts, and what these
developments might mean for U.S. power projection; the future security
environment-the
economic, social, political, and military environment in 10 to 30 years; and,
the notion that we may be entering a time of revolutionary change in the
conduct of warfare.
The
Office of Net Assessment focuses on present and ongoing trends to describe
conditions likely to be present in 10 to 30 years.
Although we do not claim to predict who the superpowers will be in the
next few decades nor forecast future events, it is possible to assess
questions such as the probable nature of future warfare, examine the future
security environment, and provide foresight
to our leaders. Someone
Thomas J. Welch is Associate Director for Science and Technology, Office of Net
Assessment, Office of the Secretary of Defense. He formerly served as Executive Director, President's
Council of Advisors on Science and Technology, and the White House Federal
Coordinating Council for Science, Engineering and Technology.
Definitions
can be arbitrary but do provide a basis for proceeding.
For us, an RMA occurs when technological change makes possible the
introduction of new materiel that when
combined with organizational and operational change, results in
fundamental change in the conduct of warfare.
What is important is not the speed with which a revolution takes place,
but rather the magnitude of the change itself.
A final feature of a definition of an RMA is a "culminating event,"
a battle that employs the new systems, operational concepts, and organizations
and that clearly demonstrates a dramatic change in the conduct of warfare.
Examples might be France in 1940, or the Battle of Midway.
In this sense, we do not see the 1990-91 Gulf War as the culmination of
an RMA but rather as analogous to the Battle of Cambrai in World War I, where
the innovative combination of airplanes, tanks, and radios hinted at what was
to come later.
Other
people may have other definitions for these periods and, not surprisingly,
come to other conclusions. Others
may proceed with no definition at all and, not surprisingly, not demonstrate
anything about anything. Using
our definition, one can indeed find periods of transformation in military
operational and organizational concepts made possible by technological change.
For example, at various times between 1917 and 1939, some people
realized that an entirely new kind of operation, strategic bombardment, was
possible. Some understood that a
new naval weapons platform, the aircraft carrier, could cause dramatic changes
in naval warfare. Internal
combustion engines, improved aircraft design, and the exploitation of radio
made possible the Blitzkrieg.
Earlier,
the machine gun, the airplane, the submarine, and the Dreadnought
class of ships dramatically altered conflict from the mid-19th century to
the early 20th century. Even
earlier, between the Napoleonic Wars and the American Civil War, railroads,
telegraphs, ironclads, and rifled muskets and artillery dramatically
transformed the nature of warfare. Union
and Confederate generals trained in the tactics and operations of the
Napoleonic era led their men to awful slaughter at places like Gettysburg. Eventually, both sides adapted to the new conditions.
Just as the Battle of Cambrai foreshadowed the Blitzkrieg operations of
World War II, the battles toward the end of the U.S. Civil War resembled the
operations on the western front in the middle period of WWI more than early
Civil War battles.
An
American scholar, Michael Vickers, has identified a number of historical
cases, beginning with the Bronze to Iron Age transition 32 centuries ago,
satisfying our definition of an RMA:
Those
nations that became aware of the importance of technological change and adapted
operationally and organizationally accrued major advantages.
Others then had to try to catch up rapidly.
An example is the German blitzkrieg and the Allied attempt to master
this new approach to armored warfare.
New,
very different measures of merit, of effectiveness, become relevant;
the old ones are more quickly discarded by the winners, who learn to
adopt the new ones.
Some
materiel, organizations, and operational concepts decrease in importance
(sunset systems) in these periods while others increase (sunrise systems).
Winners are sensitive to these changes and act on them.
Losers
planned for the future by using their current organizations and practices as a
point of departure. They were content to graft technological change onto existing
structures and operations and to improve them at the margins.
All
this raises some central issues. For
example, are we in such a period today? If
so, what part of the period are we in? How
did this period start? How long
will it last? What will the
winners and losers do? If we are
entering a special period, what kind of special perspective should we take?
What are the strategic management issues for senior decisionmakers?
For example, what are the economics of this revolution?
Much
of the original intellectual basis suggesting that we are entering a period of
dramatic change in the conduct of warfare came from Soviet writers, who continue to produce very good papers on this topic.
They argued that precision-guided weapons and "informatics" (largely what we call the information
revolution) were going to make a qualitative change in warfare.
They argued that this period would be followed by one dominated by even
more advanced technologies, for example, directed energy weapons, robotics,
and special materials. Especially
since the 1970s, their focus has been on the transition from a combat
architecture called reconnaissance-fire to one called reconnaissance-strike
complex-going
from a kind of single, self-contained weapon consisting of sensor,
fire-control, munition, damage assessment, etc., to a more effective and
efficient weapon complex where the sensor, fire-control, munition, and so on
are somewhat separated but still within a common organization.
An example might be a World War II tank compared to indirect artillery
fire.
Experts
in other countries have also written about the nature of future war. Michael Pillsbury, a China scholar, has collected a number of
Chinese articles focused on future warfare.
One of the particularly interesting articles is by Major General Wang
Pufeng, former Director, Strategy Department, Academy of Military Science.
His article is noteworthy because it examines the advantages of a
single battlefield information network to be used by all services.
After studying Russian and other writings in the late 1980s and early
1990s, we in the Office of Net Assessment asked ourselves, "What do we
think?" We set
out to understand and judge the importance of these ideas and, led by Andrew
Krepinevich, completed our
preliminary assessment in 1992. In
brief, we found that:
There
are three areas of technology that provide the basis for the beginning of a
new RMA. These three areas
encompass the information revolution; long-range, precision-guided weapons;
and, simulation, in its widest interpretation, to include computer-aided
design and manufacturing.
As
in the time of the telegraph, railroad, and rifled guns, we face a situation
where most of the technologies that matter are available in the civil sector.
It is for this and related reasons that the really interesting issues
over the next few decades are not so much about technology as about
operational and organizational lag.
We
are probably in the early stages of a revolution in military affairs. There
have been no fundamental changes in organizations and operational concepts.
(However, there have been some signs of possibly significant
organizational change, such as the recent stand-up by the U.S. Air Force of
Unmanned Aerial Vehicle and Information Warfare squadrons.
It is also interesting to see an apparent trend toward small "special
operations"
units now fielded in the United States and the units in the U.S. Marine Corps Sea Dragon concept.).
As in earlier periods of dramatic change, there will be winners and losers; there will be systems, organizations and operational practices that will decrease in importance and others which will increase in importance.
And,
as in earlier periods, we can expect some people to "oversell"
the capabilities of this period and others to scoff, deride, and ridicule
those capabilities.
From
our work to date, it is clear that we do not have the tools to adequately
assess what is happening. We have
no good models to work with; indeed, the existing models are probably more
harmful than helpful. We lack measures of effectiveness to judge the
properties of the kinds of things we believe will be important, like combat
networks and other systems and the very different kinds of military
organizations using them. In short, we do not yet have an adequate analytic
framework with which to proceed. Although
we have some notion of organizations, concepts of operations, and military
capabilities may evolve, we are still novices at understanding the unfolding
RMA.
To
illustrate RMA dimensions, it is useful to consider a specific trend that has
been underway for some time and that will be important over the next few
decades, especially as it affects military organizations.
The trend concerns what might be called "overlapping
battlespace."
Battlespace
Battlespace
is the physical volume in which military forces conduct combat operations;
some would extend the meaning to also include an infosphere and other
dimensions. In the distant past,
the battlespace of an army was more or less circumscribed by the distance it
sensed targets and the range of its weapons.
With some exceptions, the battlespace of an army either coincided not
at all, or only somewhat, with that of another service; land forces usually
fought land forces, and so on. Operational,
organizational, and materiel innovations resulted for the most part from each
service's
efforts to increase its own effectiveness and efficiency.
However, over the past 100 years or so, there has been a trend driving
a qualitatively different process for developing operational and
organizational concepts. This has
been made possible by two types of technological improvements: sensors and
weapons reaching well beyond a service's traditional battlespace, and the ability to
connect, or to network, sensors to weapons, databases, information, and
people.
As
noted in Joint Staff historical studies, land and sea missions seldom
overlapped during the United States's first 150 years.
But after the turn of the century, technological change, especially the
development of the military airplane, upset the traditional definitions of
land and sea missions. Overlapping aeronautic battlespace led to significant
organizational struggles.
Nations
reacted differently to the arrival of the aircraft.
This led to differing organizations and asymmetrical capabilities.
An example is the aircraft carrier.
The United States and Japan both saw the potential for greatly
increased battlespace and initiated fundamentally new organizations and
operational concepts to take advantage of that.
But others, focusing on the capability for increased "sensorspace"
that could increase the power of battleships, grafted the new systems onto
existing naval organizations and concepts.
In
1958, responding in part to the overlap condition made possible by
technological change, President Eisenhower pointed out that "modern weapons and methods of war have
scrambled traditional service functions"
and "separate
ground, sea, and air warfare is gone forever." Eisenhower
was concerned not only about the air-space overlap problems but also about the
overlap arising from the well-publicized competition between the Polaris
submarine and the long-range bomber. Of course, Eisenhower was not as successful in organizational
reform as he had hoped to be.
The
situation today has gone well beyond that former competition, and over the
next few decades we will see a dramatically increased overlap of networked
sensors and weapons and a more complete extension of each service's
battlespace into that of the others. A
central part of this will be the ability to "strike at a distance"
with high accuracy independent of range.
This will underlie many new, far more effective and efficient
operational concepts. One of
these will be "parallel
war,"
i.e., the simultaneous attack of tactical, operational and strategic targets,
a point articulated by Jeffrey Barnett in Future
War: An Assessment of Aerospace Campaigns in 2010.
It
is clear that interservice possibilities for
sensor-weapon-database-intelligence-people-information combinations are
increasing dramatically. The
trend is important; the number of possible interservice combinations will exceed the number of intraservice
combinations. The possible
procedures for doing the business of combat-of orchestrating diverse organizations, firepower and
maneuver-are multiplying.
Over time, some current materiel, operational concepts, and
organizations will be seen as ineffective, inefficient, fragile, unnecessarily
costly, dangerous or wasteful, and will be discarded. Arguably, it is this new situation, the structure and
processes of battlespace reach and battlespace networks, that perhaps most
distinguishes this revolution in military affairs from previous revolutions.
What
might be the nature of new military organizations and their operational
concepts? One approach to
addressing this question is to ask how networks are used today in the services
and to assess their positions on overlapping battlespace.
Another is to seek insights from corporations and industries-especially
from those that have experienced overlap and network phenomena. Corporations have the advantage of daily feedback as to how
well they are competing; this may mean they are well ahead of militaries in
exploiting the information revolution. Of
course, we need to be careful in mapping insights from industry to militaries.
The consequences of failure are very different, for example.
Some
Corporate Trends
With
the revolution in information, centered at first around the computer and then
around interactive systems, some companies saw that future competition would
be very different and that they needed to transform the way they were
organized. Today, many
decisionmakers in the commercial world see their organizations
as the way they use information to get things done.
What are some of the things we can learn from them?
First,
many companies dealing with information realized that new products were
increasingly emerging from regions of
technology overlap-products
performing functions independently or collectively by two or more industries
using different technical approaches. We
are witnessing the overlap of telecommunications, broadcast TV, cable TV,
multimedia, and wireless services. Some
students of this "digital convergence"
suggest that no one technology will dominate but that we should expect new and
dominant organizations from the regions of overlap.
The
deregulation of the telecommunications and cable industries is an example of
coping with overlapping "commercial battlespace"-telephone
companies delivering video and cable companies delivering phone services.
In past years, each of these two industries had a monopoly, a kind of
sovereignty, and something of a social contract with the public.
Each assumed a certain entitlement and tenure.
Now, technology change has caused an overlap of capabilities, the
contract is no longer seen as an efficient and effective one, and entitlement
and tenure are not guaranteed. A
similar situation is unfolding in the electrical utilities industry.
Second, companies realized that simply adding mainframe or personal
computers (PCs) to an existing organization did not in general significantly
improve effectiveness or efficiency. Eventually
it did make possible an awareness that, without changing organizational
structure, increased effectiveness and efficiency could be achieved by
changing operational procedures, simply by linking or networking the
computers. Much greater
improvements were realized when the network was made interactive and linked
databases. Corporate headquarters was no longer thought of as a fixed place;
it existed wherever management connected to the network.
All this suggested to some that the information revolution was moving
to an "interactive
revolution."
In
turn, this made possible an awareness that even more effectiveness and
efficiency could be realized, but this time with organizational change.
Companies concluded that if they could now design their organizations
around the new networks, they would look very different from the organizations
they had-in other words, existing structures were longer
sensible. Among other things,
companies saw that the new technologies eliminated much of the need for a
class of worker-middle
managers-to
collect and disseminate information.
Third,
in the 1970s and 1980s, a product like a personal computer defined itself by
its capabilities. In the 1990s,
however, the utility and importance of a personal computer and other devices
are more and more defined by what they are
connected to. Companies,
especially information-intensive ones, began to realize that not only was the
importance of a personal computer determined by a new organizing form-the
network to which it was connected-but that the network was also driving the requirement
for personal computer hardware and software.
Consequently, we now see personal computers with built-in faxmodems and
software such as "gophers"
and "browsing
aids." Very shortly, we will see inexpensive, "dumbed-down"
personal computers where the computer's operating system, applications, and other functions
have migrated to the network for use as needed.
Fourth,
some of the most innovative companies noticed the potential for a dramatically
increased span of collaboration. Some
spoke of "work as conversation."
Even though the traditional corporate command model remained
centralized, it had been displace in many cases by a decentralized one, which
in turn is being replaced by a model which seems to be neither. Some have
called the new form a corporate confederation.
It has also been suggested that while the network may be the central
structure, collaboration is the central control process.
Over time, the network structure may become a commodity while network
processes and content become more and more valuable.
Why
are networked corporations becoming far more effective and efficient?
Network members have many more ways of doing their tasks and their
customer needs can be satisfied in many new ways.
Design, manufacturing and distribution tasks can be executed more
effectively and efficiently because a corporation can at once choose among the
many resources connected to its network.
In many cases, a corporation can quickly decide to "build or
buy", to do a task itself or to contract out. Networked corporations can
do their tasks faster; they have a much better chance of reacting in a timely
fashion to challenges and opportunities as they appear.
Network members do not have to spend time acquiring catalogs and
contacting suppliers -- they go immediately to a supplier's database and
decide whether and what to buy. Finally,
owners of a dominant network can offer "dominant software"-superior
software that is "on the network" for network members such as
user-friendly connections to databases and others on the network-and
"groupware"-
software to enhance collaborative work, capabilities which owners of smaller
networks cannot afford. As with
the personal computer, the importance of an organization and its operations is
more and more determined by what the organization is connected to.
Finally,
corporations have managed to cope with many of the kinds of problems one often
hears about when discussing the information revolution and the military.
For example, the "problems"
of information overload; of top management being able to see what subordinates
are doing and deciding to meddle; of limiting subordinates to what top
managers think they ought to see and know; of affordability; of information
security; and of loss of control coming with a diminished hierarchical
structure. Indeed, the lesson from industry Chief Executive Officers
seems to be one of the information revolution freeing them up to do strategic
thinking and other arts of management.
What
can military organizations learn from these civilian experiences? Is the corporate world leading the military not only in
technology but also in operational and organizational concepts made possible
by technology? Will military
command structures continue to be hierarchical while control begins to look
more like a confederation?
Will
networking sensors, weapons, databases, and people lead to new operational
concepts that will lead to new organizations, which, in turn, will define new
materiel? Should the architecture
of military organizations be easily connectable, open, and adaptable?
Will the importance of weapon systems and military organizations be
defined by what they are connected to? Should
we expect parliaments to ask their militaries to "deregulate"
battlespace? Or will parliaments
act on its own to redefine the roles and missions of it militaries?
Service
Trends
In
the U.S. Army, a major theme is the so-called "digitized battlefield."
The idea is to connect Army platforms-tanks, helicopters, artillery vehicles-with
each other and with intelligence databases.
Former Army Chief of Staff Gordon Sullivan believes that doing so will
increase the effectiveness of the Army by 30 percent.
This increase comes simply by connecting things together; it does not
consider radical changes to Army organizations and operational concepts.
The
Army has already demonstrated "telemedicine"-medical
procedures carried out over global distances.
The Army plans to conduct some intelligence functions in this fashion.
These are cited by the Army as an example of "split-basing," putting only a portion of a functional unit
into a theater of operations, thus reducing its exposure ashore and its
airlift requirements, especially early in an operation. As much work as possible is done by the part of the
functional unit left behind. But
it is an existing organization that will be split, an organization not
designed to take optimal advantage of technological change.
For
the U.S. Navy, the C4I concept links all Navy elements.
Laying claim to some of the battlespace of the Army and Air Force, a
Navy concept proposes that its C4I capabilities support two new
missions: antitactical ballistic missile defense over land as well as sea, and
long-range, precision-guided weapons over vast sea and land areas.
Part of this is may be possible with the Arsenal ship, which, like the "dumbed-down"
personal computer mentioned above, relies on functions residing outside
itself. As conceived by the Office of Net Assessment's
Keith Bickel in 1993, the sensors, fire-control, and other functions needed by
Arsenal ship missile and gun squadrons would be external and orchestrated via
the network. It appears that the
network did not simply "enable"
the conception of an Arsenal ship; in large part, it defined it, transforming
the meaning of a ship.
It
is important to note here the seductiveness of the term C4I.
Clearly, command is not control is not communications is not computers
is not intelligence. The
construction of this term in the United States resulted largely from budget
and turf battles and not from any detached intellectual analysis. Among the dangers is that we tend to think of a single C4I
network when we should be open to other possibilities.
This is necessary if we are to avoid serious conceptual, budgetary, and
other mistakes.
The
U.S. Navy's
Cooperative Engagement Capability (CEC) is a unique air defense system,
because of the extent to which it shares information.
The CEC network connects people, sensors, and weapons in ships, on
airplanes, and on land over thousands of square kilometers.
Everyone who is connected can see what every one else can see-a
complete picture of the air space. Every
sensor on the network can be cued by every other sensor, the CEC might have 50
or more radars connected at one time. Each
sensor detecting a target offers a unique perspective on the target and all
these data are added together and distributed to everyone. Some sensors can
see a target other sensors cannot see because of terrain or other reasons, but
everyone on the network sees what the detecting sensors produce.
Further,
the CEC automatically selects the best placed weapon to attack the target.
The sensor located with the weapon need not see the target; another
sensor or sensors have done that job, and the fire control solution is
automatically computed and sent to the weapon.
Organizations
such as Arsenal ship squadrons and the small, highly dispersed U.S. Marine
Corps units envisioned in the Sea Dragon
concept, as well as materiel such as undersea sensors and undersea
platforms, could easily plug into architectures like the CEC.
Another possibility is to use the CEC and Arsenal ships as a mobile,
terminal ballistic missile defense system.
Indeed, more and more of the complete battlespace can and will be seen
and used by everyone. Under these
conditions, orchestrating the battle will require new operational approaches.
As
mentioned earlier, simulation is one of the three technological developments
making possible a very different kind of future warfare.
The CEC architecture just discussed is not unlike the structure of
recent military simulation arrangements, particularly Distributed Interactive
Simulation (DIS). A key advantage
of DIS is its ability to give each simulation participant a picture of a
common battlespace as it would be seen through a tank sight, helicopter
windshield, or whatever. In a few
years, perhaps a more important capability of DIS-demonstrating
the value of giving each participant
a picture of the complete
battlespace-may
become apparent. When this
awareness becomes possible, militaries will realize they have a remarkable "system
of systems battle lab"
with which to try out new operational and organizational concepts, as well as
to optimize the design of netted materiel.
Thus, simulation will be important not only because of its better known
capabilities, but also because of the coming ability to rapidly evaluate new,
very different operational concepts, organizations, and materiel. This may lead to important "learning-curve
dominance"
for the military establishments that are more adept in using simulation tools.
In
the U.S. Air Force, Project Talon Sword
is noteworthy. It involves
aircraft launching over-the-horizon, air-to-ground missiles using direct
target information from satellites. More
recently, the Air Force "Project Strike,"
part of its Tactical Exploitation of National Capabilities work, has
established an even more diverse and expanded network.
This network can connect Airborne Warning and Control aircraft, the
Joint STARS, other agency satellites ("national systems"),
F-15 fighters, U-2 aircraft, Rivet Joint aircraft, Predator Unmanned Aerial
Vehicles, and possibly U.S. Navy F/A-18 aircraft.
Once again, capabilities have been connected to achieve more
effectiveness and efficiency but, so far, without much change to existing
organizations, operational concepts or materiel.
Insights
as to future aerospace forces can be found in the U.S. Air Force Scientific
Advisory Board report, New World Vistas,
Air and Space Power for the 21st Century.
This report proposes a future mix of "inhabited
and uninhabited"
aircraft. As with the Arsenal
ship, the "uninhabited"
combat air vehicle (UCAV) would be very much defined by what it is connected
to. The architecture to be used
provides for an "internetting
of nodes";
the UCAV is seen as a node, part of a "seamless operation across networks." UCAVs could be transported and released by large airlifters.
Because they carry no pilots, very high maneuver-ability is possible,
and because they carry little or no sensors, the vehicles can be stealthy.
Using
these and many other illustrations, one can conclude that the services are, by
and large, responding to technological change by experimenting with, and
planning for, improving existing service
organizations using service networks connecting sensors and weapons within
service-determined battlespace. By
and large, each service is developing its own unique
reconnaissance-strike-complex. National
capabilities, such as space observation, are to be used by each service's
organizations to better support its own reconnaissance-strike-complex. It is
this absence of really new organizational arrangements and operational
concepts that suggests we are still in the early stages of this RMA.
There may well be sufficient technological capability today to permit
an RMA, but only if we are willing to change, probably quite radically, our
legacy organizations and operational practices.
A
recent Chinese forum on the "world military revolution"
put this point sharply:
The
experts of our Army (PLA) hold the view that in its bid to conduct this
military revolution, the United States will encounter obstructions from all
sides, especially obstructions from the (US) Army itself.
The military revolution which the US Army is engaged in is no more than
the use of information technology to transform the existing units as well as
the existing weaponry and equipment of the army, and the US Army has already
got trapped in the blind alley of technology.
The new military revolution takes a transitional process.
History has proved many times that due to the obstruction of outdated
traditional concepts, armies with a strong military power tend to draw out
this transitional process and end up falling far behind others in the new
military revolution. If the
United States goes on with the present practice, the military revolution it is
engaged in will not be a thoroughgoing one.
But
forces of change are beginning to appear-for example, the Direct Broadcast System being
put in use in Bosnia, and the Office of the Secretary of Defense-Joint Staff,
Advanced Battlespace Information System. These systems are transmedia
in nature and thus transservice,
which may over time have significant operational and organizational
impacts. The Advanced Battlespace
Information System is of additional interest because it clearly separates
command and control from information, and thus goes a long way in a much
needed deconstruction of the C4I artifact.
Finally, ABIS may help demonstrate that the "problem"
of information overload in militaries is brought on more by centralized
structures than quantity of information.
Other
forces of change will include the realization by parliaments that their
militaries can maintain effectiveness and save money by changing-sharing
information, its analysis, and its dissemination, for example.
One can speculate about various potential developments, including the
appearance of sunset systems and organizations-pre-positioned
supply ships as well as traditional land-based materiel and organizations no
longer needed if the operational concepts possible with Arsenal ship squadrons
even partially fulfill expectations over the next few decades. In turn, one can then speculate as to other capabilities,
such as heavy airlift, which, in large part, may no longer be needed.
One can see further economic impact by speculating as to new, very
different military organizations that, like the Arsenal ship squadrons, are defined
or determined in large part by the
network.
Another force of change will be "military misfortunes," problems resulting from the seams required by legacy organizations using legacy operational concepts to cope with overlapping battlespace. A recent example of the kind of misfortune to come is the escape of the Iraqi Republican Guard in the Gulf War. The "seam" in that case was the U.S. Army's Fire Support Coordination Line, which limited the region within which friendly Air Forces could execute unrestricted attacks. According to students of that war, the Army placed the line so far forward that it could not effectively attack the Guard, even though the Air Force could have done so. One can also look to the shootdown of the U.S. F-16 over Bosnia as the result, at least in part, of organizational seams-in this case, a failure to provide for sufficiently timely dissemination of intelligence data.
The number of seams will increase geometrically as the number of
connections and the ability of forces to strike at a distance increase.
An illustration of this increase in seams can be found in Joint
Publication 3-0, Joint Operations, a
graphic case of trying to cope with battlespace overlap without changing
organizations. In a way, we are
seeing a repetition of earlier behavior. An example is the U.S. Army-Navy agreement in the interwar
period to limit the range of Army aircraft so as not to encroach on the naval
media. Historians looking back to
the 1990s may well be baffled and amused at doctrine and regulations confining
media-based services to functions within that media.
These
forces of change will act upon all the world's militaries. In the past, these militaries often defined their
organizations in terms of operational media-land, sea and aerospace-and
each was seen as sovereign within that media.
Parliaments and the publics supported this in large part because it
seemed to make sense. Now, as
technology tends to complete the overlap and network processes, fundamental
questions of appropriate jurisdiction arise.
It
is important to understand what is happening here. First, the designers of today's
materiel, organizations, and operational concepts never envisaged the notion
of networking as we have described. Second,
just as in the corporate experience, militaries will undergo a sequence of
awareness levels before the end-state of this period is reached. At first, as former Chief of Staff for the Army General
Sullivan noted, just connecting existing materiel and organizations will be
seen to increase effectiveness. Later,
it will become apparent that the materiel in use was never designed to be
optimized on a network, and new, far more effective and efficient materiel
designs will appear.
The
defense industry will discover a growing number of customers who see existing
platforms not as "stand
alone"
weapons but rather as part of an interactive network.
The kind of platform improvements important to customers intent on
optimizing a networked system will be very different from that of customers
trying to optimize the platform. Astute
defense corporations, anticipating the coming of networks and the gradual
shift in customer requirements, will soon attempt to have it both ways by
offering "network
ready"
product improvements for platforms. Still
later, militaries will realize their operational concepts are not optimized
for use on the network and they too, will be replaced.
Probably last, militaries will realize their traditional organizations
are no longer sensible, and they will reluctantly consent to their change.
Being open to this last level of awareness will be particularly
difficult, because to meet the highest level of efficiency and effectiveness
in this period, organizations, like materiel and operational concepts, must be
designed to contribute to a single combat system occupying a single battlespace.
Some
militaries will likely implement some of the materiel, operational and
organizational changes in parallel, and not in the sequence described.
Some may even leapfrog stages. In
any event, the process of awareness and the willingness to change will be a
central feature of the long-term competition among militaries.
Conclusion
The
Office of Net Assessment has concluded that the United States is in the early
stages of an RMA, made possible by the information revolution, long-range
precision weapons and simulation capabilities.
We do not yet know the military organizations and operational concepts
that will characterize this revolution. However,
we can speculate as to their nature. We
can gain insights by studying history and trends in the military and industry.
It
may be that the most efficient and effective military organizations will be
based on the ability to network, to connect everything and everybody, to
everything and everybody else. As
predicted by some Russian writers, we are more and more able to connect diverse
entities so as to have today's reconnaissance-strike complexes subsumed by
a transservice, reconnaissance-strike system.
To illustrate this point, we will see satellite-based sensors detecting
and roughly locating SCUD launches, passing this information onto people in
the apparent impact zone as well as ground-based antimissile batteries and
JSTARS aircraft. The JSTARS
sensors, cued by the satellite sensors, are directed at the suspected SCUD
launch site and a more precise location obtained.
The SCUD is attacked by an antimissile battery and the launcher
attacked by an Arsenal ship with the bomb damage assessment done by a UCAV.
Sensor-to-shooter architecture is being replaced by a sensor-to-network
one, where the "network"
means many other sensors, weapons, data bases, etc.
This will have dramatic organizational effects.
It
appears to be more important to learn how to merge technologies than simply to
pursue emerging technologies; architecture seems more important than
engineering. It will no longer be
helpful to think in terms of service-unique battlespace.
Notions like tooth-to-tail ratio and supported or supporting forces
need to be challenged and rethought. Up
or out retention criteria may have to be replaced by a demonstrated ability to
network, resulting in something like a "sideways
or out"
standard. Because much of the
technology needed is available now, disparaging remarks about the duration of
the acquisition cycle may be displaced by concerns about the length of the
operational and organizational cycle, the time needed to field new doctrine
and new organizations to take full advantage of networked materiel.
Over
the next few decades, we may no longer structure our organizations by media or
around a platform like aircraft carriers.
Instead, the organizing principle may be the network, resulting in a
discontinuity in the meaning of organizational essence.
As this happens, the network may assume the primacy if not the
sovereignty now enjoyed by media-based services.
It is from such speculations that one can proceed to concept papers,
war gaming and simulations. One
can ask concept paper authors to think about the kinds of new networks and
long-range, precision-guided weapons we envision and ask them to conceive
future forces starting with a clean slate, to think discontinuously, and to
organize as to be most effective and efficient.
This was the process used by Thomas Mahnken in his award-winning essay
in Joint Force Quarterly 10 (Winter
1995) on the RMA. Repeated war
gaming of these concepts produces new organizational forms, some of which seem
to endure. In time, these new
organizations can be simulated and the best ones field tested. The same can be
said for new operational concepts. In
time, net assessments of one's networked organizations, operational
concepts and materiel-a combat system occupying a single battlespace-versus that of another power will be possible and
necessary. Perhaps one of the
first of these will be a "Blue CEC"
afloat versus a "Red
CEC"
ashore.
Experts
differ as to whether the realization of such concepts will take years or
decades. The timing is not as
important here as the realization that a threshold is being crossed, and we
are witnessing a fundamental qualitative change.
Not just the "rules of the game"
but the game itself will be changed, and hence the strategic planning and
decision criteria of defense establishments and of defense corporations will
be very different.
Intelligence indicators will be very different.
Finally, we should not be surprised if the military organizations of
the future, including coalitions, turn out to be very different from those of
the past.
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