Chapter 7—
Integrating Transformation Programs
Paul K. Davis
This chapter describes an approach to transforming the Armed Forces
that attempts to bridge the gap between high-level expressions of policy
and the management of transformation through programs and other initiatives.
I do not discuss specific activities because those are reviewed elsewhere
in this volume. Instead, the focus is on principles for transformation
that take into account the progress already made, the new Quadrennial
Defense Review (QDR), and the events of September 11.1
The principles are based on historical transformations in military affairs
and the business world and draw from my own earlier work. The structure
of the chapter is as follows. First, I describe a two-era framework for
discussing transformation. I then review lessons from past transformations,
suggest principles, and ask related questions about current challenges.
Next, I suggest a strategy for managing transformation that is motivated
by these principles. The suggestions may prove useful in assessing and
integrating transformation plans as they develop.
A Model and Terminology for Thinking about Transformation
It is helpful to distinguish between two roughly defined eras when discussing
transformation. As shown in figure 7 -1, Era A is the near- to mid-term
and Era B is the longer term. Somewhat arbitrarily, the figure suggests
a 30-year transition from about 1995 (just before concerns about “asymmetric
strategies” began to emerge) to 2025. As indicated by shading, the seriousness
of various “new dangers” will continue to increase throughout the 30 years.
They are already with us, but they will grow substantially. Preparing
for them will require more than incremental modernization; it will indeed
require transformation.2

Distinguishing between the two eras is useful because they require different
instruments of control, as indicated in table 7 -1. By and large, an Era
A (near- to mid-term) transformation can be guided by a relatively well
defined concept of where one is going, why, and how. It can be “managed,”
with clear assignment of responsibilities, authorities, and timelines.
In contrast, tight management for Era B transformation would be counterproductive.
What is needed is more diffuse and tentative, with exploratory experiments,
rather than rigorous tests of the sort found in development programs.

Table 7 -1 also makes the point that mainstream organizations within
the services should play primary roles in Era A, whereas we might
expect the same organizations to short-change or be actively hostile to
many of the activities being explored for Era B. This is organizationally
natural.
Although the Era A/Era B distinction is useful, it is only an approximation.
For one thing, there is no end point. Figure 7 -1 might apply equally
well in the future if we merely slide the time scale to the right. Further,
Eras A and B are connected in that success in Era B depends on laying
the groundwork in Era A.
Because the term transformation makes no distinctions between eras,
table 7 -1 also introduces some additional terms. Era A transformation
can reasonably be regarded as pragmatic reengineering, which can be defined
as the fundamental rethinking and redesign of an organization’s building
block units and processes to achieve dramatic improvements in the ability
to accomplish the organization’s missions, including new ones. A distinguishing
feature is that it is accomplished through relatively “managed” processes
undertaken with a relatively strong sense of what is needed and how to
get there, and on a relatively fast time scale. This definition does not
require reengineering to be massively disruptive.
Pragmatic reengineering highlights the concept of building blocks (modular
design) because a major goal is that future forces will be flexible, adaptive,
and robust in the world in which they must operate. This implies a building-block
approach to operations. Success then depends on the suitability of the
building blocks and the organization’s prowess in quickly assembling and
controlling their integrated application to missions.
Usual discussions of reengineering tend to emphasize studies, detailed
design, and testing. Indeed, reengineering often has a system engineering
aspect. However, it may also occur in a very different way: more as the
result of experimentation and iteration than of precise design. This is
significant because organizations should be conscious of alternatives.
Figure 7 -2 characterizes the spectrum of possibilities schematically
(along the x-axis). The two curves illustrate alternative approaches of
mixed character.

Many reengineering efforts have been the result of determined individuals
and teams who decide to “just do it” (emphasis on the left side of figure
7 -2), which includes recognizing fundamental problems, identifying principles,
having general notions of how to proceed, and proceeding without niceties
such as studies. Sometimes such an approach is effective, in part because
it harnesses the enthusiasm of problemsolving operators and in part because,
as a matter of course, errors are discovered and changes of direction
made without much agonizing. This avoids the pitfalls of studies, which
can take on a life of their own and drag the process of change out interminably,
resulting in too little, too late. U.S. business schools encourage the
aggressive just-do-it approach, which is often said to be part of what
the world sees as American pragmatism. By and large, this is also the
approach of impatient and effective military leaders. Often, such just-do-it
folks welcome new technology but see engineering as mere technician work
to be done by industry.
Unfortunately, the just-do-it approach can sometimes be disastrous.
If the needed reengineering involves large, complex systems that are to
operate quickly together, the approach should have a strong system-engineering
flavor. When major banks, for example, have muddled system engineering,
their transitions to electronic operations have failed, and they have
lost billions. One might expect the same need for high-quality system
engineering when attempting to develop a capability for joint military
operations comparable to Desert Storm or Panama in effectiveness
that could be brought to bear within days, rather than months. Further,
one would expect system engineering to be crucial in development of systems
of systems.3
In such cases, it is crucial to have top-notch system architects at the
core of decisionmaking. Admiral Hyman G. Rickover’s nuclear submarine
program comes to mind.
The two curves in figure 7 -2 represent two broadly different approaches,
but neither is extreme. As indicated by the shaded region, it is usually
wise to include thinking and serious initial design even in just-do-it
work and rapid prototyping; “rapid” need not mean “mindless.” Similarly,
even work characterized by meticulous studies and design should plan for
mature prototyping (prototypes expected to be almost right) and iteration.
The result in either case can be called spiral development, but the first
involves a more explorational spiraling, whereas the second starts with
a mature design and then refines it iteratively.4
Fortunately, the United States is good at both approaches. We may be
known for American pragmatism, but we also boast the world’s finest capabilities
for designing and implementing large and complex systems. The question
for the Department of Defense (DOD) is which style should apply to specific
aspects of transformation.
Having defined a framework for discussing transformation, let me turn
to lessons about past transformations. These tend to corroborate and add
to suggestions for transformation that have been made over the last several
years.5
They are drawn from a set of unpublished RAND papers developed as background
in recent projects for U.S. Joint Forces Command (U.S. JFCOM) and the
Office of the Secretary of Defense.6
Learning from Business Experience
In a recent manuscript, Paul Bracken reviews lessons learned in the
last decade about the connections between information technology and reengineering
in the business world.7
Instead of repeating the claims made a decade ago in the heyday of reengineering
and transformation, which was then associated with radical restructuring,
Bracken begins by noting that many efforts undertaken according to those
faddish concepts have failed. He then discusses current business-theory
understanding of how to view reengineering and how to accomplish it through
deft exploitation of information technology (IT). Bracken’s analysis supports
the view that DOD should see the reengineering component of transformation
more as a vigorous and interactive evolution than as an epochal revolution.
Bracken’s discussion in no way encourages incrementalism, but the most
effective strategy for bringing about major changes appears to be one
in which technology and operational concepts associated with information
technology are disseminated and nurtured, and in which challenges are
established to which organizations respond in ways that they themselves
discover, rather than having solutions imposed from a central office at
the top. This lesson should ring true to military officers who believe
in distributed problemsolving.8
Bracken also provides a framework within which to recognize that, in
addressing challenges of information and uncertainty, organizations attempting
to apply IT solutions have alternatives of which they may be unaware.9
One approach seeks to reduce the requirement for information by providing
enough resources so that the organization has slack with which to deal
with uncertainty or by creation of self-contained tasks that require little
information from outside the unit conducting the task. The other approach
focuses on improving the organization’s ability to process ever-increasing
quantities of information. It may emphasize vertical integration, horizontal
integration, or a combination of the two. Organizations need to be conscious
of the choices and tradeoffs, lest they chase expensive fads.
One example of this problem is the common tendency in discussions of
command and control to focus unduly on technology issues, such as bandwidth,
rather than development of the “commander concepts” that are often critical
in wars.10
Learning from Military Experience
Brett Steele has offered a fresh look at some of the military reengineerings
attempted during the interwar period, drawing on experiences in Italy,
France, Germany, Britain, the Soviet Union, Japan, and the United States.11
Even familiar episodes, such as the development of German blitzkrieg,
offer new insights when viewed through the lens of reengineering. Steele
describes cases in which nations adopted new technology but did not really
reengineer; nations adopted new technology and reengineered, but bet on
the wrong vision; and nations reengineered successfully. Some of his examples
represented attempts at planned transformation using within-reach
technology, whereas others reveal a mix of the carefully planned approach
and the experiment-driven emergent-discovery approach.12
A point that emerges from Steele’s review was that the French, who are
typically characterized as developing a simple-minded Maginot Line, had
in fact studied the lessons from World War I intensively and approached
their military planning with diligence and prowess. They accomplished
a reengineering, but they got things wrong. The Maginot Line was fine,
so far as it went, but the French concluded that the offense would, in
the future, be accomplished “deliberately,” with firepower amassed for
incremental advances. There was no concept of fast large-scale maneuver,
which had seemed to them discredited by World War I. As for defense, they
recognized that they had an exposed flank that the Maginot Line could
not cover, but they were dilatory in developing maneuver forces to provide
that coverage. More generally, the French focus on the Maginot Line exhausted
much of the available attention, energy, and funding.
The British, during the interwar period, were world leaders in studying
and experimenting with tank warfare. Their work was enormously influential.
However, much of this came to naught for Britain itself because traditional
army thinking prevailed and limited the work’s impact. Indeed, the top
leaders of the British military establishment actively suppressed dissent
once they had tilted toward the view that tanks were merely support for
infantry. Despite their groundbreaking experiments, the British were ill-prepared
for the kind of armored warfare that World War II entailed.
The United States was also woefully unprepared for World War II in many
respects; along with most nations, it misunderstood the role of armored
units. However, it learned, adapted, and could point to many developments
by the end of the war. The Department of the Navy, for example, had not
planned to have aircraft carrier battlegroups emerge supreme, but it had
laid the groundwork, and it was wise enough—after Pearl Harbor—to recognize
that the carriers that had been seen officially as support forces were
now the appropriate core. The Marine Corps also had something of which
to be proud. It had developed and honed the concepts and capabilities
for amphibious landing operations long before they were needed.
¦onventional wisdom holds that the Germans got things right, notably
blitzkrieg and the use of tanks. Ironically, one can argue that the Germans
got things precisely wrong; they focused all of their planning
around what were intended to be rapid and decisive operations but did
not prepare for what eventually transpired—a long, hard war of attrition
won by dint of numbers, industrial production, and broad, deliberate offensives.
Germany’s loss, then, was not merely a matter of bad luck and overextension,
but of profound strategic error. In contrast, the Soviet Union—despite
suffering an initial catastrophe—was prepared conceptually and doctrinally
to mobilize for and fight a long war. It mobilized and supported a huge
army, which it then employed with great strategic and operational-level
skill to doom Hitler’s ambitions. The success of Soviet reengineering
was made possible by the work of Marshal Mikhail Tukhachevsky, before
Stalin executed him in one of his many paranoid rages.
One lesson to draw from these and other examples should probably be
one of humility: serious nations working diligently and in ways that they
regarded as scientific made profound mistakes during the interwar period.
Is the United States so much smarter today? Or will we focus our transformation
efforts on a vision of war that satisfies American predilections but proves
wrong?
Other lessons from successful military transformations have been drawn
by Richard Hundley, who focuses on processes that I associate with longer-term
(Era B) work.13
For this longer term, everything is even more uncertain than over the
near term. Indeed, some of the integrated technologies that will
be important in 20 years do not yet exist, much less the concepts for
how to use them militarily. The premium, then, is on discovery-oriented
research and development influenced by military professionals. Drawing
on the experience of the Navy during the 1920s and 1930s, Hundley suggests
an approach to joint transformation that would partner U.S. JFCOM with
the Defense Advanced Research Projects Agency and centers of expertise.
Such a partnership could serve as a halfway house in which technology
developments are drawn upon by military innovators who have new operational
concepts but need experiments and prototypes. This would not be about
big-event demonstration-type experimentation, but rather a period of continuous
discovery and of trying ideas out. Rough analogues might be the famous
Skunk Works that produced the U -2, SR -71 Blackbird, and stealth aircraft.14
However, some of the most important future developments are likely to
involve not platforms but instead networked command and control and systems
of systems.
Principles for Transformation
From these historical lessons and the earlier work cited above, it is
possible to sketch a theory of how transformation should be pursued—or,
at least, to identify 10 important principles in 5 groups relating to
technology, strategy, military art and science, the political front, and
a strategy for management.
Keeping Up with Technology
1. Exploit fully the fruits of technological development. With
weak enemies, this is a matter of opportunity; with more capable competition,
it is a necessity.
2. When attempting to exploit information technology, pay close
attention to the variety of strategies available. Some strategies
involve reducing dependence on information, while some focus on improving
information flow by emphasizing vertical integration, horizontal integration,
or both.
Strategic Foresight
3. Strategic anticipation is crucial. One needs a broadly correct
vision of the future of warfare; even better is to have a multifaceted
vision that does not bet unduly on a particular type of war.
Military Art and Science
4. Get the new theory right. It is important to understand
the issues, systems, and phenomena correctly—not only in special cases
but also more generally.15
Consistent with that, the issues must be pursued deeply with a combination
of rigorous experimentation and theory and with continuing debate rather
than rigid adherence to particular concepts.16
The Political Front
5. Obtain sustained economic and political support. The latter
is at least as important as the former.
Strategy for Management
6. Pursue organizational and operational concepts that
are consistent with deeply rooted cultural characteristics, or else
take extraordinary efforts to overcome them. An example of the first
was the mission-order emphasis within the German officer corps; an example
of the second was the U.S. Navy creation of a special branch to develop
nuclear submarines and associated doctrine.
7. Organize requirements around outputs (that is, capability to
accomplish important military operations), rather than inputs or open-ended
functions, such as “strengthening logistics” or “improving communications.”
As part of this, plan forces for flexibility, adaptiveness, and
robustness; this requires new capabilities-based frameworks for analysis
and metrics.17
8. When all is said and done, get the new building blocks right.
Ultimately, an organization’s building blocks are what dictate flexibility.
9. Guide even some aspects of long-term development with concrete
military challenges and an operational context. This principle is
discussed in detail below.
10. Despite efforts to get things right, plan and lay the groundwork
for later adaptations. Even the best-laid programs and best-conceived
capabilities will turn out to be not quite what is needed. Changes will
be necessary. This occurred, for example, in the early days of what
came to be carrier aviation and amphibious operations.
Many organizations have reengineered themselves successfully without
meeting all of these criteria, but near-twins have failed through what
might reasonably be seen as the roll of the dice. If DOD is more risk-averse
than the world of business entrepreneurs, it might do well to consider
these 10 principles as necessary conditions.
Applying the Principles in the Current Era
The 10 principles suggest issues and questions for today, some of which
are summarized in table 7 -2. For brevity, I comment here on just some
of the principles, starting with principle 3.

Strategic Anticipation (Principle 3)
The U.S. military has chosen a concept-driven approach to transformation.18
Doing so has many advantages. This choice has a potential shortcoming,
however: attention and enthusiasm may be so focused
on one or a few concepts that the foundation is not laid for eventual
needed capabilities. The issues here relate both to concepts of future
war and concepts of operations in those future wars. Reinforcing the point
is the fact that we can see multiple trends. Consider that:
- Some adversaries in major theater wars will be able to use even second-
or third-rate versions of modern technology effectively against current
U.S. operations; examples include mines that are difficult to detect
and precision-area weapons that would preclude prolonged massing within
enemy range.
- Other “modern wars” will be characterized by the special dangers
and omnipresent constraints encountered in Kosovo.19
- Some terrorist operations will involve enemies willing to commit
suicide and to cause massive civilian casualties.
- China is inexorably rising as a major regional power and will have
at least some interests that conflict with those of the United States,
most notably regarding Taiwan, but also broader issues of regional influence.
- The U.S. homeland is now a target rather than a sanctuary.
This is not a complete list. Other entries, for example, might express
concerns about drug wars and other causes of instability in the Western
hemisphere, or about space becoming a theater of conflict.
It follows that many types of military operations will be important
in the future, but the capabilities to accomplish them may not come along
naturally if the military is overfocusing on a particular notion of war
or particular operational concepts. Capabilities that might not come along
without DOD intervention include those for the types of rapidly planned
and executed dispersed, parallel, and quintessentially joint operations
discussed in the Joint Vision documents.20
They also include prompt antiterrorist operations going beyond precision
strikes and special operations forces. The prospect of inserting sizable
ground forces deep into other countries without a good logistical base
is always sobering, but that might happen in pursuing terrorists or in
a war with Iraq. Even more unnatural but important to consider in the
face of historical experience are capabilities such as those for fighting
our way back onto the Arabian Peninsula or Korea after an initial debacle.
Such possibilities have seldom been highlighted in the service or U.S.
JFCOM experiment programs, nor even in strategy studies with a futures
component.21
Fortunately, the philosophy of capabilities-based planning, which is emphasized
in QDR 2001, is consistent with broadening the scope of work.22
I return to this in the last section.
Military Art and Science (Principle 4)
Although there are many examples of fine military programs seeking
to understand definitively one or another subject, there is no broad and
systematic DOD effort to develop a definitive understanding of future
warfare phenomenology as called for in principle 4, much less to develop
the relevant theory and represent it intelligibly in models.23
This has not always been so severe a problem.24
The causes of difficulty here are multiple. First, it is easier and
arguably more natural to do experiments that are “merely illustrative”
than to do something more comprehensive. Second, the U.S. military culture
tends not to value definitive knowledge as much as it might. Indeed, “theory”
often has the connotation of “unreal.” Further, military models and simulations—which
are a major de facto knowledge base—typically have the character of bottom-up
procedural computer programs. They are not known for reflecting sound
theories, clarifying issues, or facilitating adaptiveness in planning.
Yet another cause appears to be a shortage at high levels of training
in “system thinking,” including the system engineering discussed earlier.25
Finally, the experiment programs that are commissioned tend (some would
say inexorably) to become “can’t-fail” demonstration programs.
Strategy for Management (Principles 6 -10)
Principle 6 calls for either a match between initiatives and organizational
culture or else extraordinary measures to overcome resistance. When the
Navy created nuclear-powered ballistic missile submarines, doing so required
creating a new culture. This would probably not have happened without
DOD insistence, but—once given the assignment—the Navy proceeded with
imagination and determination under the legendary Admiral Rickover. Many
other examples can be found. The principle has special significance today
when the Secretary of Defense wants to pursue capabilities-based planning
but is saddled with organizations and processes that have evolved in ways
antithetical to that style. Serious cultural changes are necessary.
I make relatively detailed recommendations about principle 7 (organize
requirements around outputs) and principle 8 (get the building blocks
right) in the next section, but the main issue is how to create an analytical
architecture that assures good options are generated and that a rational
process of analysis and comparison assists choice under massive uncertainty
and economic constraints. If this sounds like capabilities-based planning,
it is.
Principle 9 deals with the long-term component of transformation. Here
the first question one might ask is, “What is broken?” Many observers
believe that the DOD research and development (R&D) process has come
to have several problems. First, the constant pressure to reduce costs
has diminished the number of new ideas that are taken far enough to really
taste and feel the possibilities. This sometimes requires at least prototypes,
rather than rough conceptual studies. Second, it is notoriously difficult
to move ideas from the early phases of research into development and notoriously
difficult to move even very promising concepts through the entire acquisition
system. One reason cited over the years is the lack of sufficient operator
involvement. After all, it is the warfighters who ultimately head their
military services and determine what developments go forward. Unless their
imaginations have been captured, potentially good ideas can wither on
the vine. Some examples of systems that have taken too long to acquire
are laser-guided weapons, unmanned aerial vehicles, and aerial surveillance
platforms with moving-target radar capability.
Planning for strategic adaptation (principle 10) sounds like a cliché,
but it can be made concrete if DOD adjusts its planning framework and
processes to make such matters explicit. The planning process often appears
to embrace the myth that decisions are good forever. Much is made, for
example, about a decision to buy a certain number of new aircraft, even
though history tells us that the ultimate buy will likely be smaller or
larger, depending on how the world develops. Making explicit the potential
for such adaptations might improve the quality of programs by avoiding
inappropriate optimizations based on faulty assumptions. More important
strategically is the value of creating hedges against possible international
developments. Most such developments, even those that appear at the time
as shocks, can be anticipated. Their probability cannot usefully be estimated,
but their nature can be.26
Moving from Principles to Recommendations
Given this background, how might we move from principles to action?
I next describe an approach that is intended to connect DOD planning efforts
with the concepts and constructs of operations planning. As noted earlier,
the focus should be on outputs. The ultimate outputs of capabilities-based
planning are the capabilities of the U.S. Armed Forces to conduct important
military operations: campaigns and their components as directed by a commander
in chief (CINC) or Joint Task Force commander. Ultimately, it does not
count for much that the United States has superb military space systems
if it cannot use its projection forces effectively. Nor will it count
for much that the United States has invested massively in information
technology if the projection ýorces cannot conduct the important missions
assigned to them. This is the difference between an input view and an
output view. By focusing on output in the form of ability to conduct key
operations (for example, to intervene to stop ethnic cleansing and preclude
invasion), we automatically see issues as system problems. Functional
capabilities, such as those for logistics and command, control, communications,
computers, intelligence, surveillance, and reconnaissance, all appear
as subordinate requirements because the mission cannot be accomplished
without them.
Operational Challenges
A key element of the approach is to identify an appropriate set of operational
challenges for DOD to use as a focus. These operational challenges should:27
- correspond to military missions at the operational level of warfare,
which is where national objectives and broad military strategy must
be translated into war plans.
- be limited to particularly important future operations, the capability
for which will not arise without DOD intervention.28
- as a set, cover all of the most important challenges of this type.
As a corollary, they should neither be, nor be perceived to be, tilted
toward a particular service.
- encompass and highlight the goals for and pillars of transformation
identified in the most recent QDR.
- be such that developing the requisite capabilities will inevitably
cause the innovative use of technology, new concepts of operation, and
new organizational forms that are “in the right direction” for the transformation
desired. Consistent with this, they should encompass and highlight the
specific operational goals identified in QDR 2001.
The last item may seem strange. It assumes that a high-level concept
of the “right direction” precedes the problemsolving to develop specific
capabilities. This is in fact precisely what I mean. There are times in
history when top leaders of an organization know what direction is appropriate—based
on a combination of trends and possibilities—even though not everyone
is yet convinced. Leadership then includes shoving the organization in
the right direction. Of course, if the leaders are wrong, that will be
a problem. Nonetheless, this is often an essential element of strategic
leadership. To put the matters differently, the operational challenges
should be chosen so as to force change along particular vectors.
A final consideration is that the operational challenges should be manifestly
appropriate, rather than faddish. Americans are notoriously fickle, and
each new administration seeks opportunities to change names and concepts
and thus to put its stamp on things. However, DOD needs objectives with
legs—objectives in which officers, officials, scientists, and engineers
can invest precious years of their professional careers. Whims have no
place. A related matter is that creating the wrong subjects and categories
can cause management problems for many years; it pays to start with a
good framework.
With this background, I offer in table 7 -3 a set of proposed operational
challenges against which to measure transformation proposals. It addresses
only projection-force issues.29

For each such challenge, it is possible to decompose the problem (figure
7 -3 gives a top-level view of the first operational challenge); identify
critical components; assign responsibilities, authorities, and resources;
and monitor progress. These components, then, connect the operational
challenge to specific programs and other initiatives. Further, metrics
for followup work develop naturally from such an operational analysis.

Generating Options
One role of the Secretary of Defense is to establish requirements (figure
7 -4), including operational challenges. It is the role of the military
departments and the Joint Chiefs of Staff to develop solutions, although
sometimes the Secretary must weigh in personally. Secretary of Defense
Donald Rumsfeld has indicated his intention to ask for options from which
he will choose. Consistent with that, it should be part of transformation
strategy for the Secretary to insist that the military departments develop
alternative programs and related initiatives that address the operational
challenges effectively. One reason for doing so is to increase the likelihood
that the Secretary will be presented with options that represent a range
of views within the services about how to proceed. A traditional role
of the Office of the Secretary of Defense has been to champion ideas generated
by officers who are unable to convince their service leaders.30
By demanding alternatives, the Secretary may bring further good ideas
to the surface.

The Secretary should also insist that the costs of the various optional
programs be calculated realistically. The idea of life-cycle costing goes
back 40 years or more, but the discipline to enforce it has often been
absent. If the programs presented are amply budgeted, the economic imperative
for transformation will be visible, and the arguments for reengineering
(substituting capital for labor) will be stronger.31
Thus, an element of transformation strategy should be to insist on candor
in costing.
Support Issues
One important and subtle component of this issue involves support forces
and infrastructure. The true capability of the total force cannot be understood
without understanding that elements of the forces are independently usable
without gutting other elements of the force structure. Brigade-sized units
are sometimes appropriate for small-scale contingencies, but a deploying
brigade must take with it more than its “fair share” of division and corps
support structure because of optimizations made long ago during the Cold
War. If the Army now wants to move to a more brigade-focused posture,
it will not have the capability suggested by the number of brigades unless
it pays the bill to provide the extra support structure that would make
the brigades independent. The Air Force has analogous issues.
Revising DOD Analytical Architecture
Given a set of operational challenges—and many other considerations,
such as maintaining worldwide presence and being prepared for near-term
wars against rogues or terrorist supporters—the Department of Defense
must evaluate alternative plans for force posture. Unfortunately, the
DOD approach to analysis has for some years been antithetical to capabilities-based
planning. Defense needs a new architecture for defining and conducting
analysis.32
Among the elements of that architecture should be the paradigm of mission-system
analysis (MSA), sketched in figure 7 -5.

The first principle of MSA is to organize thinking around output as
discussed above. Doing so means organizing around mission capabilities.
Although one can refer to aircraft, ships, and tanks as “capabilities,”
the capabilities of most interest in defense planning are the capabilities
to accomplish key missions (that is, to conduct successful operations
such as to defeat an armored invasion, achieve control of the seas in
a region, defend against a missile attack on the United States, or capture
a terrorist enclave, perhaps where weapons of mass destruction are hidden
in mountain caves). Having platforms, weapons, and infrastructure is not
enough. Of most importance is whether the missions could be confidently
accomplished in a wide range of operational circumstances. This is a system
problem.
Mission-system analysis has much in common with other methods, such
as strategies to tasks, the idea of mission capability packages,33
or the approach described in chapter 6 of the present volume. However,
even though the underlying philosophy is similar, the MSA character appears
rather different in practice. Mission-system analysis construes the system
broadly; it emphasizes exploratory analysis under massive uncertainty;34
and it can handle soft issues such as effects-based operations, analysis
of which requires qualitative modeling (including cognitive modeling).35
Overall, the purpose of mission-system analysis is to achieve flexible,
adaptive, and robust capabilities for the missions at issue. This means
no-excuse, real-world capabilities, not just paper capabilities. Suppose
that we want to develop requirements and capabilities for a particular
mission (left side of figure 7 -5). We consider a variety of capability-set
options (top). For each option, we assess strengths and weaknesses across
a wide range of operating conditions or scenario space, where “scenario”
includes not only the political-military setting but also all of the key
assumptions, such as warning times; force sizes; coalitions; enemy strategies
(such as short warning or antiaccess strategies); and effectiveness. This
concept of exploratory analysis across a scenario space enables planning
for adaptiveness, flexibility, and robustness.36
Revising the analytical architecture also means addressing models. Unfortunately,
models and simulation have distinct limitations when assessing some of
the most important operations being considered for future warfare. These
limitations will not go away with mere tweaks to current models or with
the emergence of the Joint Warfare System.37
What is needed is a modern family of models and games, with varied resolution
and perspective. Part of this would be a capability for a rigorous
version of war gaming that would provide the Secretary of Defense
and Chairman of the Joint Chiefs of Staff with analytically structured
assessments of capability by professional officers who “think joint” and
act in behalf of future CINCs when war gaming. This capability could,
for example, reside in the Joint Staff, Joint Forces Command, or some
combination of one of these and federally funded research and development
centers, which would provide structuring, continuity, and followup. Such
war gaming is not new, but much more could be accomplished analytically
to structure gaming and to refine and extrapolate its results.
Monitoring Progress and Sustaining Pressure
It is one thing to do special transformation studies and to get ideas
into the program; it is another to assure their sustained nourishment.
Institutionalizing mission-system analysis and related metrics could be
a big help. Another mechanism would be to establish yearly Secretary of
Defense contingency games as a device for estimating the real-world capabilities
that would exist as a result of planned near- and mid-term actions. These
would combine features of the “Dynamic Commitment” games introduced in
the Joint Staff in 1996, the sorts of force-employment gaming described
above, and followup experimentation and analysis to assess the validity
of planning assumptions. There would be multiple test cases, which would
not be known to gamers beforehand and which would be designed to test
flexibility, operational adaptiveness, and robustness. They might, for
example, start with the assumption of a successful enemy strike on forward-deployed
or allied forces, bases, or information systems.
Explicitly Reviewing Suitability of the New Building Blocks
Since building blocks are so fundamental, DOD should dwell less on numbers
of current major formations, such as carrier battlegroups and the like,
worrying about whether to cut back their number to save money or increase
their number because of worldwide commitments. Instead, it should focus
on asking whether the future major formations arising from modernization
and transformation are the right building blocks.38
Assessing this will not be trivial in a networked world or when the full
implications for support structure and infrastructure are considered.
Addressing the Longer-Term Components of Force Transformation
Given the problems cited in the previous sections regarding longer-term
transformation, several approaches suggest themselves:39
- Encourage diversity of concept exploration in R&D; dissuade continuing
efforts by cost-cutters to stamp out as “redundant” what may actually
be healthy and valuable competition of approaches.
- For some concepts, establish rapid-exploration laboratories bringing
together operators, technologists, and analysts to pursue mission-oriented
concepts through rapid prototyping, spiral exploration, and enrichment
of the knowledge base. This could be accomplished by partnering relationships
between JFCOM and the services, federally funded research and development
centers or national laboratories, and industry.40
- Continue DOD efforts begun over the last decade, such as advanced
concept development programs, to move certain promising concepts quickly
from the world of R&D into the actual force, rather than bogging
down in the normal acquisition system.
Rethink Experimentation
There are chronic problems in the way that the American military pursues
experimentation. A manifestation of the problem is the focus on “experiments.”
Although being against experiments would be heretical (and contrary to
my beliefs), it seems that what is needed is to substitute the concept
of studying the “Military Art and Science” of future warfare, rather than
“conducting experiments.” Obviously, conducting experiments should be
a crucial component, but by embedding experiments in the larger endeavor,
it might prove easier to generate efforts that more typically get short
shrift. These include, for example, theorizing and studying.41
It also includes research-level prototyping, small-scale controlled experiments
to tighten knowledge of phenomenology, and larger-scale exercises and
experiments. With this in mind, a proposal that is much less modest than
it might at first seem is for the Secretary of Defense to establish a
number of programs to study definitively the military art and science
of selected warfare areas.
Taken as a whole, these recommendations would go far in applying the
lessons of past experience and research. They should also be consistent
with the new QDR and may be practical measures for moving from QDR-level
expressions of policy to actionable measures related to warfighting capability.
Notes
- 1. Department
of Defense, Quadrennial Defense Review Report (Washington, DC: Department
of Defense, 2001). [BACK]
- 2. Transformation
can be interpreted in many ways, as discussed by Richard L. Kugler and
Hans Binnendijk in the present volume, as well as by Paul K. Davis,
“Transforming U.S. Forces,” in Frank Carlucci, Robert Hunter, and Zalmay
Khalilzad, eds., Taking Charge: A Bipartisan Report to the President
Elect on Foreign Policy and National Security (Santa Monica, CA:
RAND, 2001). For a discussion of the difficulties in moving promptly
toward revolutionary transformation, see Michael O’Hanlon, “Modernizing
and Transforming U.S. Forces: Alternative Paths to the Force of Tomorrow,”
in Michèle Flournoy, ed., QDR 2001: Strategy-Driven Choices for America’s
Security (Washington, DC: Institute for National Strategic Studies,
National Defense University Press, 2001). [BACK]
-
- 3. Air attacks
on infrastructure targets can sometimes prompt a temporary rise in support
for enemy leaders as people “rally round the flag,” but
air attacks that are sustained, intense, accurate, and one-sided can
be devastatingly effective in reducing enemy morale. See Stephen T.
Hosmer, Psychological Effects of U.S. Air Operations in Four Wars,
1946-1991, MR-576-AF (Santa Monica, CA: RAND, 1996). [BACK]
-
- 4. These levels of
effectiveness apply to interdiction of armored units that are moving
but not in contact with other ground forces. When friendly and enemy
ground forces are in close proximity, concerns about fratricide constrain
weapons, tactics, and rules of engagement in ways that can reduce the
effectiveness of air attacks. [BACK]
5. To have 90 percent
confidence of dropping a bridge span took, in 1944, 240 tons of bombs
(B-17 with unguided bombs); in 1965, 200 tons (F4-D with unguided bombs);
in 1972, 12.5 tons (F4-D with precision guided munitions [PGMs]); and
in 1990, just 4 tons of PGMs (F-117). See Benjamin S. Lambeth, The
Transformation of American Airpower (Ithaca, NY: Cornell University
Press, 2000),160; and C.R. Anderegg, Sierra Hotel: Flying Air Force
Fighters in the Decade after Vietnam (Washington, DC: U.S. Air Force,
2001),122-124. [BACK]
6. For example, an
estimated 40 percent of the Iraqi soldiers in the Kuwait theater of
operations deserted prior to the coalition’s ground attack in late February
1991. Many of those who remained offered only token resistance once
the ground invasion began, as evinced by the surrender of more than
85,000 additional Iraqi officers and enlisted men during the 100-hour
ground operation. Less than 20 percent of Iraqi tanks and 10 percent
of their armored personnel carriers showed evidence of attempts to resist
during the ground attack. See Hosmer, 152-170. [BACK]
7. For an analysis of the factors
bearing on the outcome of Operation Allied Force, see Stephen
T. Hosmer, Why Milosevic Decided to Settle When He Did, MR-1351-AF
(Santa Monica, CA: RAND, 2001). See also Benjamin S. Lambeth, NATO’s
Air War for Kosovo: A Strategic and Operational Assessment (Santa
Monica, CA: RAND, forthcoming). [BACK]
8. Centered on a set of instrumental
ranges outside of Nellis Air Force Base, Nevada, Red Flag exposes aircrews
to a realistic simulated combat environment. Units are required to conduct
air defense, sweep, defense suppression, interdiction, strategic attack,
and other combat missions in the presence of air-to-air and surface-to-air
defenses much like those they would encounter in a conflict involving
a capable regional adversary. All missions are “scored” and critiqued
daily. [BACK]
9. See America’s Air Force,
Vision 2020, U.S. Air Force (undated), available at <www.af.mil/vision>.
[BACK]
10. Beyond addressing the ballistic
missile threat, the airborne laser will provide an operational testbed
for other potential applications of directed energy, perhaps to include
defense against surface-to-air missiles, air-to-air missiles, and other
aircraft. It might even prove useful in the antisatellite role.
[BACK]
11. Combat-coded aircraft are
those in operational fighter or bomber units. These do not include aircraft
in training units or in long-term maintenance status.
[BACK]
12. The terms long range
and short range are, of course, relative. With help from the
large USAF fleet of aerial refueling aircraft, fighter aircraft can
operate routinely from bases 1,000 miles or more from their targets,
as was demonstrated by the F-117 in Operation Desert Storm and
the F-15E in Operation Allied Force. [BACK]
13. See John Stillion and David
T. Orletsky, Airbase Vulnerability to Conventional Cruise-Missile
and Ballistic-Missile Attacks (Santa Monica, CA: RAND, 1999).
[BACK]
14. This project is called the
low-cost autonomous attack system. [BACK]
15. Some Predator UAVs have been
modified to carry and deliver Hellfire guided missiles. The Predator/Hellfire
combination has been reportedly used successfully in Afghanistan.
[BACK]
16. For example, it has been
estimated that a constellation of SAR/MTI satellites capable of reliably
tracking individual vehicles would have to consist of between 40 and
100 satellites, at $300 million to $500 million per satellite (including
launch costs). [BACK]
17. For an assessment of the
implications of ongoing deployments for USAF operations tempo and individual
personnel, and the effects of potential force structure reductions on
both, see David E. Thaler and Daniel M. Norton, Air Force Operations
Overseas in Peacetime: Optempo and Force Structure Implications,
DB-237-AF (Santa Monica, CA: RAND, 1998). [BACK]
18. As one example, see U.S. Joint
Forces Command, Rapid Decisive Operations (Norfolk, VA: U.S. JFCOM,
2001). [BACK]
19. Wesley K. Clark, Waging
Modern War: Bosnia, Kosovo and the Future of Conflict (New York: Public
Affairs, 2001). [BACK]
20. Joint Chiefs of Staff, Joint
Vision 2010 (Washington, DC: Department of Defense, 1996), and Joint
Vision 2020 (Washington, DC: Department of Defense, 2000). The issue
of rapid employment is discussed in James McCarthy, Executive Summary
to Transforming Military Operational Capabilities, accessed online
at <http://www.defenselink.mil/news/Jun2001/d20010621transexec.pdf>;
and in Eugene Gritton, Paul K. Davis, Randall Steeb, and John Matsumura,
Ground Forces for Rapidly Employable Joint Task Forces (Santa Monica,
CA: RAND, 2001). [BACK]
21. Michèle Flournoy,
ed., QDR 2001: Strategy-Driven Choices for America’s Security (Washington,
DC: Institute for National Strategic Studies, National Defense University
Press, 2001). [BACK]
22. Davis, Analytic Architecture.
The term capabilities-based planning refers to planning for a diversity
of conflicts in a diversity of circumstances, rather than focusing on
a particular threat scenario. [BACK]
23. See also National Research
Council, Naval Studies Board, Modeling and Simulation, vol. 9,
Technology for the United States Navy and Marine Corps: 2000 -2035
(Washington, DC: National Academy Press, 1998). [BACK]
24. In the 1950s and 1960s, DOD
and the Air Force comprehensively studied atmospheric and space phenomena
related to rockets, missiles, and satellites. In the 1970s and 1980s,
the Navy supported deep research to understand phenomena related to submarine
observability. In earlier years, the Navy mastered the phenomena involved
in operating nuclear-powered SSBNs and SSNs. In more recent times, one
might think of the research base underlying stealth technology (Air Force)
or the considerable Army research on how to increase the capability of
light ground forces. See, for example, John Matsumura et al., Lightning
Over Water: Sharpening U.S. Light Forces for Rapid Reaction Missions
(Santa Monica, CA: RAND, 2001). The Marine Corps has done extensive work
exploring the feasibility of different operational concepts in desert
and urban settings. [BACK]
25. This issue was a matter of
considerable concern in a recent study conducted for the Chief of Naval
Operations. The study recommended increased emphasis on operational analysis,
system engineering, and rigorously systematic experimentation in connection
with network-centric operations. See National Research Council, Naval
Studies Board, Committee on Network-Centric Naval Forces, Network-Centric
Naval Operations: A Transition Strategy for Enhancing Operational Capabilities
(Washington, DC: National Academy Press, 2000). [BACK]
26. See Paul K. Davis, “Protecting
the Great Transition,” in Davis, New Challenges in Defense Analysis.
[BACK]
27. Davis et al., Transforming
the Force. [BACK]
28. It would be foolish to “waste”
Secretary of Defense guidance by directing the Air Force and Navy to develop
capabilities to assure the ability to achieve air and maritime superiority
in war. [BACK]
29. Most of the QDR operational
goals for transformation relate well to these. Accomplishing the operational
challenges requires being able to protect relevant bases, to deal with
antiaccess strategies, and so on. Thus, the goals appear in a context
that provides motivation. [BACK]
30. Such championing by the Office
of the Secretary of Defense played a major role in procurement of both
the A -10 and F -16. [BACK]
31. The effects will vary with
service and may be less than some individuals hope for. See chapter 5
in the present volume by William D. O’Neil. [BACK]
32. Davis, Analytic Architecture.
[BACK]
33. See David S. Alberts, John
J. Garstka, and Frederick P. Stein, Network Centric Warfare: Developing
and Leveraging Information Superiority (Washington, DC: C4ISR Cooperative
Research Program, 2000). [BACK]
34. Exploratory analysis is a recently
developed approach that examines capabilities for a broad operating space,
rather than studying only a few point scenarios in detail. Thus, it considers
simultaneous variations in warning time, real-world weapon effectiveness,
real-world allied effectiveness, enemy strategy, and many other factors.
The theoretical and technological base for such work has been described
elsewhere. See, for example, Paul K. Davis, “Exploratory Analysis Enabled
by Multiresolution, Multiperspective Modeling,” Proceedings of the
2000 Winter Simulation Conference, available from RAND as RP -925.
A recent application is described in Paul K. Davis, Jimmie McEver, and
Barry Wilson, Measuring Interdiction Capabilities in the Presence of
Anti-Access Strategies, MR -1471 -AF (Santa Monica, CA: RAND, 2002).
[BACK]
35. For definition and discussion,
see Paul K. Davis, Effects-Based Operations (EBO): A Grand Challenge
for the Analytic Community (Santa Monica, CA: RAND, 2002). [BACK]
36. See, for example, Davis et
al., Measuring Interdiction. [BACK]
37. The Joint Warfare System (JWARS)
is a large and controversial campaign-level model of military operations
developed to support operational planning and execution, force assessment
studies, system trade analyses, and concept and doctrine development.
It will not be appropriate for exploratory analysis of the sort emphasized
here but may permit selective analysis with a great deal of joint richness.
[BACK]
38. This has been one of the author’s
themes from some years (see Davis, New Challenges in Defense Planning).
It is much more fundamental than the greatly overdone and ill-defined
issue of whether U.S. forces should be sized for two simultaneous major
theater wars. [BACK]
39. A positive step recently taken
was the DOD appointment of a special Director for Transformation, Arthur
K. Cebrowski, who championed transformation in the Navy. [BACK]
40. Hundley, “A Proposal to Strengthen.”
[BACK]
41. Lest this seem like scholarly
poppycock, consider the value that theorizing and studying had to Soviet
military developments or that it has had in the United States in special
domains, such as nonacoustic antisubmarine warfare or strategic command
and control. [BACK]
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