Cobra or Comanche? Supporting
Operational Maneuver From The Sea
CSC 1997
Subject Area - Operations
EXECUTIVE SUMMARY
Title: Cobra or
Comanche? Supporting Operational
Maneuver From The Sea
Author: Major K. W.
Danel, United States Marine Corps
Thesis: Though the
Marine Corps is modernizing its fleet of AH-1W attack helicopters, serious
consideration should be given to acquiring the RAH-66 Comanche to better
support Operational Maneuver From The Sea.
Background: Operational
Maneuver From The Sea (OMFTS) employs ship-to-objective maneuver (STOM) and
information superiority to greatly expand the area of influence of a modest,
forward afloat Marine Air Ground Task Force (MAGTF). STOM involves the distant movement of forces directly into the
objective from amphibious ships positioned well over the horizon. Within the OMFTS framework, the quest for
information superiority and the use of numerous Hunter Warrior teams throughout
a greatly expanded and non-contiguous battlespace will greatly increase reliance
on the Marine attack helicopters for armed reconnaissance and security. The Marine Corps attack helicopter of the
future is currently planned to be a modernized variant of the AH-1W SuperCobra,
referred to as the 4BW.
Ironically,
though the requirement for the 4BW to conduct armed reconnaissance and security
will increase, it is the armed reconnaissance and security mission for which
the 4BW will be least suited. Even
though the RAH-66 Comanche is significantly more expensive, for reasons of
survivability, responsiveness, and overall effectiveness, the Marine Corps
should consider replacing the AH-1W with the RAH-66 Comanche, vice the 4BW.
Recommendation: That the
Marine Corps make the investment now to acquire the RAH-66
Comanche to replace the AH-1W.
COBRA OR COMANCHE:
SUPPORTING OPERATIONAL MANEUVER FROM THE SEA
In
October of 1995, the Commandant of the Marine Corps established the
Commandant's Warfighting Laboratory (CWL) and a Special Purpose Marine Air
Ground Task Force (SPMAGTF). The Commandant
directed these organizations to evaluate advanced operational concepts and
supporting technologies through a program of advanced war fighting experiments,
called Sea Dragon. One of the
Commandant's goals for Sea Dragon was to, "jump start the acquisition
process," to ensure that the Corps' war fighting systems keep pace with
the advancement of operational concepts.[1] One such warfighting system in need of a
jump start is the Marine Corps attack helicopter, the AH-1W SuperCobra. Though the Marine Corps is modernizing its
AH-lW fleet, the planned upgrades and modernization will not optimize the Cobra
to support anticipated future operational concepts. Therefore, serious consideration should be given to the acquisition
of the advanced, heavily armed scout helicopter, the RAH-66 Comanche.
Hunter Warrior was the first in the series of
Sea Dragon Advanced Warfighting Experiments (AWE). The Hunter Warrior concept of employment related directly to the
Marine Corps operational concept, Operational Maneuver From The Sea
(OMFTS). OMFTS, "Is a marriage
between maneuver warfare and naval warfare.
It couples doctrine with technological advances in speed, mobility, fire
support, communications, and navigation to identify and exploit enemy
weaknesses across the entire spectrum of conflict."[2] The major principles of OMFTS include: a focus on the operational objective vice
establishing a force beachhead; use of the sea as maneuver space; generation of
overwhelming tempo and momentum; employment of friendly strength against enemy
weakness; emphasis on intelligence, deception operations, and flexibility; and
integration of all organic, joint, and combined assets into the fight. [3]
Some
of the operational concepts that will enable OMFTS include ship-to-objective maneuver
(STOM), sea based logistics, and dispersion of forces ashore. The intent is to mass the effects of the
force, particularly the effects of supporting fires, without massing the force
itself. STOM is intended to leverage
the mobility of the MV-22, the Advanced Amphibious Assault Vehicle (AAAV), and
the Landing Craft, Air Cushioned (LCAC) from well over the horizon; perhaps as
far as 150 NM from the objective. Sea
based logistics is intended to reduce the logistics footprint ashore as much as
possible to increase operational flexibility and facilitate force dispersion in
the battlespace. Battlespace dispersion
of forces ashore is primarily intended to enhance force protection, but also
facilitates the expansion of the area influenced by a modest forward afloat
force; like a Marine Expeditionary Unit (MEU).
The
key to the success of OMFTS is information superiority, or, "The
capability to collect, process, and disseminate an uninterrupted flow of
information while exploiting or denying an adversary's ability to do the
same."[4] Information superiority will enable the
Marine Air Ground Task Force (MAGTF) to effectively and efficiently execute the
OMFTS concept. Information superiority
is not intended to be a panacea for removing the inevitable fog and friction of
battle. Nor will information
superiority supplant the war fighter's artful intuition in decision
making. Perfect knowledge and checklist
warfare are not the goals of information superiority. However, a faster, more accurate battlespace picture gained
through a system that provides information superiority will facilitate faster,
better decision making.
Information is the currency of future
warfare and its collection is critical to the success of OMFTS. In order for Marine forces to successfully
employ OMFTS, they must be able to collect information on the enemy; almost
with impunity. Therefore, as the Marine
Corps emphasizes the acquisition of technology to support future operational
concepts, it must focus on reconnaissance systems. The importance of reconnaissance to OMFTS was evident during the
recent Hunter Warrior AWE conducted in California at Marine Corps Bases Camp
Pendleton and Twenty Nine Palms. The
command element (CE), air combat element (ACE), and combat service support
element (CSSE) all operated from Camp Pendleton, while the combat service
support detachment (CSSD) operated from Twenty Nine Palms. By separating the CE, ACE, and CSSE by great
distances (150 NM in this case) from the CSSD and GCE, the Hunter Warrior AWE
aligned with the operational concepts of OMFTS.
The
Hunter Warrior SPMAGTF was representative of a reinforced Marine Expeditionary
Unit (MEU). The GCE was organized into
a number of Hunter Warrior teams consisting of six Marines each and an
operational maneuver element (OME). The
OME consisted of a mechanized weapons company, a tank company, a light armored
reconnaissance (LAR) company, and an artillery battery. The mission of the Hunter Warrior SPMAGTF
was to protect the flank of a larger Joint Task Force (JTF).
The
concepts of Hunter Warrior and OMFTS have several implications for the future
employment of a forward afloat MAGTF.
Amphibious shipping will be positioned well over the horizon, perhaps
25-50 NM from the shore and maybe as much as 150 NM or more from the objective
area. Several independent teams or
elements from the ground combat element (GCE) will be inserted clandestinely
into a greatly dispersed battlespace.
The depth and breadth of the battlespace for which the MAGTF is
responsible will increase exponentially, creating a greatly dispersed and
non-contiguous lay down of MAGTF forces in the battlespace. The mission of the Hunter Warrior teams will
be to observe and report the presence and activities of enemy forces and
coordinate their destruction through supporting fires.
The
direction in which the Marine Corps is moving with OMFTS generates serious
questions about the future effectiveness of the AH-lW SuperCobra to support the
MAGTF. Though the mission and tasks of
the SuperCobra will remain predominantly the same, the relative importance
among the tasks will change. Currently,
the mission of the AH-lW is, "To
provide combat attack helicopter fire support and fire support coordination
during amphibious operations and subsequent operations ashore."[5] Specific tasks of the AH-lW include close
air/antiarmor fire support, supporting arms coordination, escort of transport
helicopter flights and ground convoys, and armed reconnaissance.
The
predominant tasks conducted by the AH-lW today are close air/antiarmor fire
support (CAS), airborne supporting arms coordination (SAC(A)), and escort of
transport helicopters. The CAS and
SAC(A) tasks will certainly remain important to the MAGTF commander, while
escort of transport aircraft (i.e. the MV-22) will wane. However, the most significant future
potential mission change for the AH-lW is an increased emphasis on armed
reconnaissance and security. The quest for information superiority will
increase the MAGTF commander's reliance on the AH-1W for armed reconnaissance
and security. Additionally, a greatly
expanded, non-contiguous battlespace will also increase demands on the AH-lW
for armed reconnaissance and security.
Non-contiguous ground operations implies that ground forces will not
control the terrain that is between them.
Rather, they will influence terrain through smaller, well dispersed
forces employing coordinated, massed fire support. Another problem with greatly dispersed forces operating
non-contiguously is that they will not be capable of direct, mutual support of
each other. This is another reason that
the importance and relevance reconnaissance and security increases for the
AH-1W.
Ironically,
even as the importance and relevance of armed reconnaissance and security
increases for the AH-lW, it is armed reconnaissance and security for which the
AH-lW is least suited. Even in the
future, when the AH-1W is modernized into the 4BW variant, it will not be
optimized to provide responsive, survivable, and effective armed reconnaissance
and security support to MAGTF commanders conducting OMFTS operations.[6]
Of
course the 4BW is not the only system capable of reconnaissance and security
within the MAGTF. In most scenarios,
light armored reconnaissance (LAR) is the MAGTF commander's primary reconnaissance
and security force. However, LAR will
have its own problems supporting OMFTS.
For starters, consider that LAR units will incur a ship-to-shore
mobility disparity relative to units transported by the MV-22. An LAR company consists of approximately
twenty five vehicles. East coast Marine
Expeditionary Units (MEU) typically deploy with a platoon of approximately six
Light Armored Vehicles (LAV), while the West coast MEUs typically deploy with a
company (minus) of approximately 14 vehicles. These LAVs are capable of being
externally transported by CH-53E, but are typically moved ashore by LCAC. The
primary reason for this is that the few CH-53E aircraft deployed with the MEU
(four) are heavily engaged lifting artillery, fuel, ordnance, and other supplies.
The
problem with transporting LAR units via LCAC is that it ties this essential
reconnaissance and security asset to ship-to-shore mobility, vice
ship-to-objective mobility. Therefore,
the MAGTF commander's primary ground reconnaissance and security force is
relegated to crossing the beach in the same manner used by Marines since the
1930s, albeit at about 30 knots.
Even
if greater numbers of CH-53E aircraft could be deployed with the MEU and used
to lift LAR from ship-to-objective, the greatly expanded MAGTF area of
influence would still require significant supplementary support by the
4BW. The LAR ship-to-shore mobility
problem is mitigated somewhat by the tremendous mobility of the LAV once its
wheels hit the ground. Nevertheless,
future MAGTF commanders will have little choice but to rely more heavily on the
4BW to conduct reconnaissance and security.
Other
reconnaissance assets organic to the MEU include Marine reconnaissance teams,
to include radio reconnaissance, the Hunter Warrior teams, and AV-8B
Harriers. Reconnaissance teams and
Hunter Warrior teams are important for the reconnaissance, surveillance, and
supporting arms coordination they provide to the MAGTF commander. However, as these teams will be foot mobile
for the most part, their inability to traverse the vast distances associated
with future OMFTS battlespace will again force the MAGTF commander to use the
4BW for armed reconnaissance and security.
The
AV-8B enjoys a mobility advantage over other MAGTF reconnaissance assets, in
that it is capable of traversing the entire MEU area of influence in
minutes. However, high airspeed becomes
a disadvantage when conducting armed reconnaissance in certain types of
terrain. While the AV-8B might prove
satisfactory for armed reconnaissance in a wide open, desert scenario, it would
likely prove unsatisfactory in a jungle environment.
For
all of these reasons, the armed reconnaissance and security task will take on
greater priority for the 4BW in the future.
However, conducting this task involves significant risk to the 4BW and,
in turn, the MAGTF commander. The
effectiveness and survivability of a helicopter in the armed reconnaissance and
security role depends greatly upon the helicopter's ability to remain
undetected by the enemy. Night
operations and sound tactics provide only limited protection against the myriad
systems to which a helicopter is vulnerable.
To succeed at the armed reconnaissance and security within the OMFTS
construct, a helicopter must be survivable, mobile, and possess a sophisticated
suite of missions systems. Plans for
modernizing the survivability, mobility, and mission systems of the 4BW will
enhance its mission effectiveness and survivability, but the modernization will
not keep pace with the anticipated requirements being born of OMFTS and Sea
Dragon.
In
terms of survivability, the 4BW will be at a disadvantage because its
relatively large radar, infrared, and acoustic signatures. Therefore, the 4BW will be somewhat easy to
detect. In a non-contiguous
battlespace, there will be a great deal of terrain that is not under the
control of the MAGTF. Similarities
might be drawn to Viet Nam where the enemy could be positioned anywhere in a
360° circle around a friendly position.
In OMFTS operations, there might not be a clearly delineated forward
line of troops. Barring perfect
knowledge of the intelligence situation, which is unlikely even in the future
age of information superiority, the helicopter force will have greater
difficulty picking routes and attack positions that are not threatened by enemy
observation and fires.
Of
course, these challenges can be mitigated somewhat through the employment of
sound tactics, but the survivability systems and engineering built into the
helicopter is critical, as well. The
survivability enhancements planned for the 4BW include engine infrared
suppressers to reduce the threat of observation by night imaging systems and
infrared (IR) seeking missiles. Other
passive 4BW survivability systems include radar, laser, and missile launch
warning systems. Active survivability
systems include an IR jammer and an automatic chaff and flare dispensing
system.[7] The problem is that the 4BW is intended to
meet the USMC attack helicopter requirements through the year 2020.[8] Currently, each of the survivability systems
discussed above are fielded or have been tested and are in some stage of being
fielded. They are each designed against
current threat systems. Will these
systems retain their relevancy and effectiveness into the year 2020? They would if the operational and tactical
concepts in the year 2020 were similar to those of today. However, OMFTS operations are significantly
different and will place the 4BW well within range of enemy weapon systems with
much greater regularity. Unfortunately,
there is very little that can be done to improve the stealthiness of the 4BW,
or reduce its detectability. In
contrast, the survivability features incorporated in the RAH-66 Comanche
include extremely low radar, infrared, and acoustic signatures and radar,
laser, and chemical munitions detection systems. Plus, the Comanche cockpit and the avionics bay are
over-pressurized for nuclear, biological, and chemical (NBC) defense. The Comanche is not currently scheduled to
possess active countermeasures equipment, like chaff and flare dispensers,
since no currently known or anticipated system is considered enough of a threat
to merit the investment.[9] The survivability enhancements resident in
Comanche give it increased freedom of movement in the midst of enemy air
defenses, which greatly enhances mission effectiveness and flexibility.
In
terms of mobility, the 4BW, like LAR, will suffer a decrement in
ship-to-objective mobility, relative to the MV-22. The performance improvements anticipated for the 4BW fall well
short of those gained by transitioning from the CH-46 to the MV-22. The 4BW cruise airspeed, at mid gross
weight, will increase by 17 knots; from 129 knots to 146 knots. However, the MV-22 will cruise at about
250-280 knots. The disparity of
airspeed and range between the MV-22 and the 4BW precludes attached escort of
the MV-22 by the 4BW.
The
speed and range of the MV-22 enable the MAGTF to move forces from
ship-to-objective over great distances; as much as 150 NM, or more. The problem for the 4BW at these distances
is that it will take over an hour for the 4BW to get to the objective. The 4BW will fly faster and remain
on-station longer than the AH-lW without refueling, but at the distances
anticipated for OMFTS, response time of the 4BW is greatly degraded. Vigilance and training notwithstanding,
responsiveness to a call for CAS is a function of aircraft speed and distance
from the target. If the 4BW is kept
feet wet, on deck alert, 50 miles from the beach and 150 miles from the
objective, responsiveness will obviously suffer.
The
relative mobility disadvantage incurred in OMFTS operations by the 4BW could be
offset somewhat through mission planning.
The tradeoff is to establish forward area arming and refueling points
(FAARP) ashore. However, establishing
FAARPs goes against the grain of the OMFTS concept. Many of the benefits of OMFTS, such as surprise, flexibility, and
force protection through dispersion and standoff, will be degraded by the
establishment of FAARPs ashore. The
forward positioning of the 4BW will greatly increase its potential exposure to
enemy weapons systems and observation.
Exposure to enemy observation and fire presents serious survivability
challenges as helicopters are conspicuously vulnerable to everything from small
arms to precision guided munitions. Yet
the performance characteristics of the 4BW will make this tradeoff necessary
for ensuring timely 4BW support. Yes,
the 4BW will support ship-to-objective maneuver from 150 NM away, but it will
not do so without significant mission tradeoffs and increased risk.
The
alternative to the 4BW and the associated tradeoffs necessary to ensure it can
support the OMFTS concept, is again, the RAH-66 Comanche. In terms of performance, the Comanche is
being designed to self deploy for distances up to 1260 NM without refueling.
The Comanche's cruise airspeed will top 210 knots and its endurance, while
carrying a mission payload, is on the order of 3 1/2 hours. The Comanche will be able to launch from the
ship, 150 NM from the objective, could arrive on-station in about 30 minutes,
and could stay on-station for about 2 hours.
The Comanche will also be able to do all of this in nearly any weather.[10] At a speed of 210 knots the Comanche still
will not keep up with the MV-22, but the combination of higher airspeed and
longer on-station time gains back much of what the 4BW gives up in terms of
mobility and flexibility.
In
terms of mission systems, the 4BW will be satisfactory, but not ideal. For starters, the sensors and ordnance
systems planned for the 4BW are the same ones that are flying on the AH-1W
today. In terms of communications, the
upgrades planned for the 4BW include two voice and data capable ARC-210
radios. The ARC-210 will have the capability
of communicating in the UHF or VHF/FM bands employing HAVEQUICK II or SINCGARS
frequency hopping capability. The 4BW
will also be equipped with a SATCOM radio, an Automatic Target Handover System
(ATHS), and a Data Modem.[11] Unfortunately, there are no plans to
incorporate a video link capability in the 4BW. A video link would enable the 4BW crew to communicate with UAVs,
other aircraft, and ground stations to transmit or receive FLIR and camera
imagery of targets, routes, or anything else of tactical interest; all in near
real time.
In
sharp contrast to the evolutionary nature of the missions systems modernization
planned for the 4BW, is the revolutionary technology planned for the RAH-66
Comanche. According to General Gordon
R. Sullivan, former Chief of Staff of the Army, "Comanche will be the eyes
and ears of the commander on the lethal future battlefield."[12] Comanche is a heavily armed scout helicopter
designed to fulfill the armed reconnaissance and security mission for the U.S.
Army. However, the sophisticated
sensors, weapons, and communications equipment planned for the Comanche give it
tremendous potential as an all-round attack helicopter for the Marine
Corps--one that will be tremendously well suited to support OMFTS operations.
Comanche
sensors include the Longbow millimeter wave fire control radar, an
electro-optical target acquisition system, a second generation FLIR integrated
with image intensification sensors for night vision pilotage, and a helmet
mounted heads-up-display (HUD). Target
and mission data processing will be accomplished via two very high speed
integrated circuit computers capable of processing data at pentium speeds.[13] Comanche weapons will include six internal
weapons pylons and eight external fuel/armament management stations capable of
carrying external fuel cells or weapons; for a total of fourteen universal wing
stations. The wing stations will be
capable of carrying the laser and radio frequency (RF) guided Hellfire precision
guided missile; the family of Hydra 70, 2.75" folding fin aerial rockets;
and the Stinger air to air missile. The
Comanche will also be equipped with a 20 mm machine gun.[14] Comanche communications equipment is
geared toward efficiency and inter-operability. The Comanche will be equipped with two VHF/FM frequency hopping
radios, one VHF/AM, one UHF/AM, and one HF radio. The Comanche will also have an improved data modem with four
protocols including Variable Message Format, Advanced Field Artillery Tactical
Data System (AFATDS), Tactical Fire Direction System (TACFIRE), and the Marine
Tactical System (MTS).[15]
It
is obvious that the Comanche will incorporate the technology that will enable
it to acquire, target, and destroy enemy targets in nearly any weather with
unparalleled precision and efficiency.
Unfortunately, the cyber technology resident in Comanche comes with a
cyber technology price tag. The average
fly away cost for the Comanche is estimated to be 14.2 million dollars per
airframe.[16] In contrast, the average fly away cost for
the 4BW is estimated to be 1.892 million dollars per airframe.[17] When the fiscal realities of the Marine
Corps are superimposed on the operational advantages of the Comanche, the
argument nearly becomes moot.
Nevertheless,
the Comanche arguably fulfills the future needs of the Marine Corps better than
the 4BW. The Comanche's ability to
survive while effectively supporting OMFTS in the digital and joint battlespace
of the future, far exceeds the capability of the 4BW. It must also be recognized that the price of doing business
within the construct of OMFTS is going to be expensive. The level of technologic advancement
required to support the operational concepts of the next century require
significant investment. This is
particularly true with respect to aviation systems as, "Aerospace has outrun much of its
engineering knowledge base and faces dramatically increasing costs for the next
generation of innovative products."[18]
The
conceptual and technological advancements the Marine Corps is pursuing will go
a long way toward giving the Marine Corps the advantage in the battlespace of
the future. However, the concepts and
the technology must remain in balance to ensure that the MAGTF commander is
supported. The RAH-66 Comanche is a
significant force multiplier, as it is optimized to support the Marine Air
Ground Task Force and Operational Maneuver From the Sea. As such, the Comanche is well worth the
investment.
BIBLIOGRAPHY
Commandant's Warfighting Laboratory
(CWL). Hunter
Warrior AWE, Detailed Experiment Plan. MCB Quantico, VA: Marine
Corps Combat Developmant Command, 6 January 1997.
Drucker, Daniel C. "Opportunities and
Resources." VERTIFLITE,
Vol-42, September/October 1996, 12.
Everett, Kelly. Financial Manager at PMA-276, Naval Air Systems Command. Interview by author, 18 March 1997.
Headquarters Marine Corps. Marine
Corps Combat Readiness Evaluation System, Vol XI, Combat
Support Elements, MCO 3501.4A.
Washington D.C.: 19 June 1991.
Johnson, Maj E.S. "RAH-66 Comanche-Eyes and Ears for the 21st Century." Field Artillery, May-June 1996, 22.
Lange, Carol. Operations Research Analyst at Design to Cost and Procurement
Cost Estimating Branch, Comanche Program Management Office, U.S. Army Aviation
Program Executive
Office. Interview by author, 17 March
1997.
Marine Corps Association (MCA). Operational
Maneuver From the Sea, A Concept for the Projection of Naval Power Ashore.
MCB Quantico, VA: June 1996.
Sexton, Col (USMC, Ret). "USMC H-1 Upgrade Program Brief, 4BN/4BW."
Bell Helicopter Textron Inc., Briefing, Presented at USMC Command and Staff College
H-1 Professional Military Education. MCB Quantico, VA, November 1996.
[1] Commandant's Warfighting Laboratory, Hunter Warrior AWE, Detailed Experiment Plan, (MCB Quantico, VA: Marine Corps Combat Developmant Command, 6 January 1997), Annex M.
[2] Marine Corps Association, Operational Maneuver From the Sea, A Concept For The Projection of Naval Power Ashore, (MCB Quantico, VA: June 1996), A-1.
[5] Headquarters Marine Corps, Marine Corps Combat Readiness Evaluation System, Vol XI, Combat Support Elements, MCO 3501.4A, (Washington D.C.: 19 June 1991), IIIC-1.
[6] The AH-1W is programmed for modifications that include new mission systems and a four bladed rotor system. Consequently, the AH-1W is referred to as the 4BW.
[7] Col Sexton (USMC, Ret), "USMC H-1 Upgrade Program Brief, 4BN/4BW," Bell Helicopter Textron Inc., brief at the Command and Staff College H-1 Professional Military Education Meeting, MCB Quantico, VA, November 1996.
[9] Maj E.S. Johnson, "RAH-66 Comanche-Eyes and Ears for the 21st Century," Field Artillery, May-June 1996, 22.
[16] Carol Lange, Operations Research Analyst, Design to Cost and Procurement Cost Estimating Branch, Comanche Program Management Office, U.S. Army Aviation Program Executive Office, interview by author, 17 March 1997. (Note: Comanche cost estimate is in 1996 dollars. Fly away cost is comprised of recurring costs such as engineering; and non-recurring costs such as tooling, engineering changes, system program management, and system production test and evaluation costs.)
[17] Kelly Everett, Financial Manager, PMA-276, Naval Air Systems Command, interview by author, 18 March 1997. (Note: 4BW cost estimate is in 1996 dollars.)
