| Rear
Adm. John B. Nathman, USN, is director of air warfare, Office of the
Chief of Naval Operations.
On the night of
January 17, 1991, more than 100 Tomahawk cruise missiles were launched
at pre-programmed targets by nine U.S. Navy warships in the
Mediterranean Sea, Persian Gulf, and Red Sea, marking the beginning of
Operation Desert Storm. That same night, 228 combat sorties were
launched from the decks of six aircraft carriers in the Red Sea, the
Persian Gulf, and the North Arabian Sea. The total American naval forces
assembled in the region as part of the U.S.-led coalition included six
carrier battle groups, two battleships, and a 31-ship amphibious task
force--more than 100 ships in all--carrying nearly 75,000 Sailors. In
addition, some 67,000 Marines comprised the Marine Expeditionary Force
ashore, while another 18,000 Marines were embarked in the ships of the
amphibious task force--bringing the total U.S. naval contingent to
160,000 personnel.
During the next
five weeks, the world was riveted by the astonishing success of
coalition forces as they overwhelmed the world's fourth largest military
power and drove Saddam Hussein's occupying army from Kuwait--thereby
achieving one of history's most visible and rapid victories.
In the United
States, the images of the Gulf War, which included strike aircraft
rocketing from the decks of carriers and Tomahawk missiles arching
skyward from battleships, became fixed in the minds of many Americans
and are now part of the national subconscience. The sound-bite and
video-clip depictions provided by the news media of subsequent military
operations, including the recent air campaign in Kosovo, are often so
similar to the remembered images of Desert Storm that the public might
naturally assume that little has changed in the past ten years in terms
of the U.S.-warfighting capability. For the U.S. Navy and naval
aviation, however, nothing could be further from the truth.
A
Factor of Ten
During the last
decade, naval aviation has been engaged in a revolution--a revolution in
strike warfare--which will culminate early in the new century with the
introduction of the F/A-18E/F Super Hornet strike fighter into carrier
air wings and with the stocking of carriers' magazines with
through-the-weather precision ordnance. Once this revolution is
completed, the strike capability of an aircraft carrier and embarked air
wing will be more than 10 times greater than that of their late-1980s
predecessors--making a single aircraft carrier battle group (CVBG)
nearly twice as powerful as the six that combined to enable victory
during Desert Storm.
It is important
to recognize that U.S. naval aviation's future does not derive solely
from a single platform or weapon system. Although the Super Hornet and
the critical warfighting systems that come with it are at the heart of
the revolution in strike warfare, the vision for naval aviation goes
beyond the strike fighters to include balancing and shaping our air
wings, helicopter force, maritime aircraft and, of course, the aircraft
carriers themselves.
In order for
naval expeditionary forces to be decisive, naval commanders must have
access to the battlespace and be able to build and sustain battlespace
awareness and knowledge with a high degree of fidelity. Naval aviation
is well suited for this: Its platforms, systems, and sensors that
support command and control, intelligence, surveillance, reconnaissance,
antisubmarine warfare, antisurface warfare, precision strike targeting,
and electronic attack all are critical to making that vision a reality.
As has been the
case for many years, most of today's naval expeditionary forces work up
and deploy as part of CVBGs or amphibious ready groups (ARGs). A typical
CVBG is equipped with a total of 74 aircraft, 50 of which are strikers.
Battle-group power-projection capability is augmented by Aegis
guided-missile cruisers and destroyers that provide naval surface fire
support, which includes the Tomahawk land-attack missile (TLAM). The
nuclear-powered attack submarines that deploy as part of the CVBG are
TLAM-capable as well, and add to the battle group's ability to project
power ashore--as demonstrated so effectively during NATO's Operation
Allied Force.
The striking
power of an ARG is centered on the Marine Expeditionary Unit (Special
Operations Capable), or MEU(SOC), embarked in the ARG's amphibious
assault ships. It includes 2,100 Marines plus heavy armor, artillery,
and command and combat support elements. The ARG's Air Combat Element
(ACE) includes both fixed- and rotary-wing strike aircraft, including
AV-8B Harriers, which are capable of vertical takeoff and landing, and
AH-1W Super Cobra attack helicopters. Other naval expeditionary forces
that operate in support of CVBGs and ARGs, but which often deploy
independently, include not only individually deployed warships and
submarines, but also SEALs, special operations and coastal patrol craft,
and forward-deployed land-based patrol and reconnaissance aircraft, such
as the P-3C Orion and EP-3E Aries II.
World events
since the collapse of the Soviet Union and the end of the Cold War have
demonstrated an increasing need for naval expeditionary forces and naval
aviation. Despite the post-Cold War drawdown and widely anticipated
"peace dividend," the reality is that the Navy and Marine
Corps are being called upon to respond with greater frequency--and at an
accelerating pace. For example, during all the years of the Cold War,
the Navy/Marine Corps team responded to 190 different crises, an average
of one such operation every 11 weeks. From 1990 through 1997, the team
reacted 80 times to global hotspots--once every four weeks--nearly a
threefold in-crease. In 1998, naval forces responded to a different
crisis every 3 weeks on average--a fourfold increase over Cold War
crisis-response levels. The adage that the first question asked by the
president during any crisis is most often "where is the closest
carrier" has been borne out time after time as naval forces have
responded around the world to crises from Iraq to Haiti, from Taiwan to
the Balkans. For those who have participated in these operations and
understand just how effective naval air power can be, the secretary of
state's observation that "the only thing that can replace a Carrier
Battle Group is another Carrier Battle Group" rings absolutely
true.
Precise,
Lethal, Coherent
As the
centerpiece of naval expeditionary forces, naval aviation possesses
several characteristics that make it uniquely suited for the full
spectrum of military operations from humanitarian relief to sustained
power projection. One important characteristic is the speed of response
that comes with forward presence, aircraft carrier mobility, and the
range and reach of its tactical aircraft, sensors, and weapons. Another
is the independence and freedom of action that come from being a
self-contained total force and the ability to operate from international
waters, free from issues of sovereignty, basing rights, and
force-protection considerations that often diminish access by land-based
forces. Most significantly, naval aviation brings the ability to conduct
sustained power projection that is precise, lethal, and coherent.
The dramatic
increase in power projection from the revolution in strike warfare is
best illustrated by a direct comparison of striking power among carrier
air wings from the 1980s, 1990s, and into the first decade of the 21st
century. In the late 1980s, a typical air wing included two squadrons of
F-14A Tomcat fighters, one squadron of A-6E Intruder medium-attack
aircraft, two squadrons of A-7E Corsair II light-attack aircraft, one
S-3A Viking sea-control squadron, one EA-6B Prowler electronic attack
squadron, and one E-2C Hawkeye squadron providing airborne early
warning, command, and control. In terms of striking a "punch,"
the mainstays of this air wing were the 24 Corsairs and 12 Intruders.
By the late
1990s, the A-6s and A-7s that fought in Desert Storm had been completely
replaced by squadrons of F/A-18 Hornet strike fighters--a multimission
aircraft that brings the air wing high-reliability, less intensive
maintenance requirements, and the potential of greatly increased sortie
rates. Concurrently, F-14 Tomcat has evolved from being an exclusively
air-superiority fighter to the "Bombcat," a LANTIRN-(Low
Altitude Navigation and Targeting Infrared for Night)-equipped strike
fighter having excellent day-and-night precision strike capability.
Additionally, the EA-6B Prowlers are now High-speed Anti-Radiation
Missile (HARM) "shooters," so they, too, have the ability to
strike and destroy targets.
Effects-Based
Targeting
In less than a
decade, the number of strikers in a typical carrier air wing has grown
from 36 to 50, while simultaneously moving from a "dumb bomb"
to an all-precision force capable of much higher
sortie-generation rates. Not only did this significantly increase the
lethality of the air wing's aircraft but--by every metric used to
measure the strike capability of an air wing--a revolution in strike
capability was in the making. Rather than calculating the number of
targets put at risk per day by a particular air wing based on any given
set of conditions, the introduction of precise weaponry--which allows
the surgical destruction of specific aim points within a target--meant
that air wing effectiveness could be measured in terms of aim points at
risk instead of targets struck.
In practical
terms, rather than estimating how many sorties it would take to destroy
a target (e.g., a refinery to be taken out by many aircraft dropping
dozens of weapons), strike planners could employ nodal analysis to
leverage the accuracy of precision weapons to achieve the desired effect
(interruption of refinery production for a specified length of time)
with far fewer weapons and aircraft sorties. As a result, the naval
expeditionary forces that provided the preponderance of force for
Operation Desert Fox in Iraq in December of 1998, and more recently
contributed to the allied victory in Kosovo, enjoyed nearly a 3-to-1
advantage in effective striking power over that generated during Desert
Storm.
The revolution
in strike warfare will culminate as new weapon systems currently in
development and production enter the fleet over the next several years.
New families of precise through-the-weather weapons, many with standoff
capability, will further increase naval aviation's lethality,
effectiveness, and survivability. Two of these--the Joint Standoff
Weapon (JSOW) and the Joint Direct-Attack Munition (JDAM)--have been
combat-tested and proven in Iraq and the Balkans with stunning success.
Both combine inertial/GPS (global positioning system) guidance to
provide tremendous accuracy with an ability to attack despite bad
weather conditions that obscure the pilot's view of the target. These
weapons also allow air crews to attack and destroy targets with
precision from higher altitudes and at greater ranges than possible
before. Other weapons, such as the enhanced re-sponse Standard Land
Attack Missile (SLAM-ER), will provide even greater lethality by
allowing strike aircraft to stand off outside the enemy's area defenses.
Decade
of the Super Hornet
The final and
most significant component of the revolution in strike warfare will be
the introduction of the F/A-18E/F Super Hornet, which is currently
undergoing operational evaluation. As this aircraft replaces the F-14
Tomcat and current versions of the F/A-18 Hornet, it will bring
significant increases in range, payload, survivability, weapons carriage
capacity, and growth potential to carrier air wings. When its
capabilities are combined with the new generation of sophisticated
weaponry, the typical carrier air wing operating in 2001 will be able to
strike 10 times the number of target aim points over any given period of
time than was possible in Desert Storm. This, then, is the revolution in
strike warfare for naval aviation--an order-of-magnitude increase in
capability, achieved in less than a generation.
A
Seamless Battlespace
The challenge
naval aviation now faces is how to maximize the combat performance of
highly capable individual platforms by integrating them into a seamless
battlespace-centered network. Continuing advances in information
technology promise to give a revolutionary increase in combat effects by
shifting the focus from specific platforms to a netted striking force.
Netting geographically dispersed sensors and shooters into a coherent
fighting force that can--almost instantaneously--observe, orient,
decide, and then act in response to enemy actions will dra-matically
increase the capability of deployed commanders to rapidly target and
strike a diverse array of aim points, including the mobile short-dwell
targets that pose such targeting difficulties today. In plain English,
Network Centric Warfare (NCW) is about getting the right information to
the right shooter at the right time.
For ease of
understanding, the effects of NCW as a warfighting concept and
organizing principle for naval forces can be thought about as occurring
on three different levels or planes: the planning and coordination
plane, the force command and control plane, and the engagement plane. On
the planning and coordination plane, new state-of-the-art,
network-linked, computer-based planning systems will compress the time
it takes to do mission planning and significantly increase the fidelity
of the product. On the force control plane of NCW, naval aviation will
enable naval forces (as well as joint forces) to engage targets through
the E-2C, equipped with Cooperative Engagement Capability (CEC). Because
of the uniquely mobile nature of aircraft, naval aviation has more
dispersed platforms and sensors on the engagement plane of NCW than any
other force. The potent new-generation strike fighters, armed
helicopters, and Standoff Land Attack Missile (SLAM)-capable maritime
aircraft all deliver precision ordnance and provide today's strike force
an unsurpassed level of lethality and versatility.
Upcoming weapon
system upgrades will dramatically increase the combat capability of
these already potent platforms. JSOW and JDAM will be greatly enhanced
with Automatic Target Acquisition/Recognition systems.
Synthetic-aperture radar and electronically scanned radar systems will
provide high-resolution data for engaging targets at long range through
all weather. These powerful systems will then be netted together via the
next-generation network communication/information system, Link-16.
Netting offboard and onboard sensors will not only give aircrews better
situational awareness at the tactical level, improving their
effectiveness, but will also contribute to building battlespace
awareness at the operational level--enabling intuitive
command-and-control decisions by operational commanders.
CVNX:
Smart Carriers
The central
role of our aircraft carriers themselves, operating within a Network
Centric Warfare environment, is another critical aspect of the vision
for Naval Aviation. More than the "flattop" at the heart of
our striking capability which provides for fueling, arming, launch,
recovery, and turnaround of our tactical aircraft (as important as that
is), our carriers possess a tremendous potential to enable
operational-level command and control of expeditionary naval and joint
forces. The Nimitz-class nuclear-powered aircraft carriers of today's
fleet will continue to serve as the backbone of Naval Aviation to 2050
and beyond--their flexibility and capacity for adaptation to new
aircraft, new weapons, new command-and-control systems, and enhanced
communications and connectivity serve as a testament to the strength of
their design and the foresight of the teams that conceived and built
them. The next 10 years, however, will usher in the dawn of an evolution
in carrier design, with a new generation of aircraft carrier currently
known as the CVNX.
The CVNX will
incorporate several major improvements over the Nimitz design based on
today's cutting-edge technology. These include new high-density nuclear
reactors, a new electrical power-generation and -distribution system,
and internal redesign of spaces within the hull. This smart,
reconfigurable design will be focused to fully support Network Centric
Warfare and maximize the carrier's capabilities as a command platform.
Equipment will be installed in modules to allow selected computer and
combat systems to be replaced or modified several times over the ship's
life span, giving CVNX greater flexibility and more longevity than even
the highly successful Nimitz-class carriers.
In summary, it
is clear that there is an increasing demand for expeditionary forces and
that this demand has placed a premium on the inherent flexibility and
responsiveness of U.S. naval aviation. The ability of carrier battle
groups and amphibious ready groups to rapidly respond across the
spectrum of conflict only reinforces their value and credibility to
theater commanders and national leaders.
Revolutionary
improvements in combat capabilities and effects, spearheaded by the men
and women of naval aviation and supported by enablers such as the Super
Hornet, are giving U.S. forces the ability to dominate the battle space
from the littoral. In addition to the presence they maintain in areas of
national interest around the globe, naval forces bring the right mix of
capabilities to be decisive upon arrival. Whether shaping the deep
battle, supporting the Marine maneuver scheme, or simply demonstrating
U.S. resolve, no force is better suited to meeting the challenges faced
by the United States at the dawn of the 21st century. |