[sci.military] Information about Hughes AGM-65 Maverick

jfb@ihlpm.att.com (Joseph F Baugher) (07/24/90)

From: jfb@ihlpm.att.com (Joseph F Baugher)

Scott Silvey asked about the Hughes AGM-65 Maverick air-to-surface missile.  
Here are a few notes on this weapon, summarized from "The Illustrated
Encyclopedia of Aircraft Armament" by Bill Gunston and from an article by
Jim Rawles which appeared in the Nov. 1988 issue of Defense Electronics.

The Maverick missiles are all "fire and forget" weapons; that is, they need
no further guidance input from the attacking aircraft once they are launched.
There are three different types: the TV Maverick, the laser Maverick, and
the infrared Maverick.

The missile was produced in seven versions, A through G.

AGM-65A:  This was the first production version of the Maverick.  It had a
TV camera in its nose with a 5-degree field of view.  The pilot or weapons
officer of the attacking aircraft first sees the target visually and then
selects it for attack.  The aircraft is then turned toward the target.  A
Maverick is then activated, and its TV camera is turned on.  An image of the
target appears on the screen in the cockpit, and the pilot either steers his
aircraft or else slews the camera until the target is centered in the 
crosshairs on the screen.  The pilot then locks the camera onto the target
and fires the missile.  The missile then homes in on its target by means of 
a centroid tracker.  Once the missile leaves its launcher, no further guidance
is provided by the attacking aircraft.  

The AGM-65A is equipped with a 130-lb conical shaped-charged warhead, designed
to attack hard land targets such as tanks, bunkers, and fortified positions.
The total weight of the missile is 463 pounds.  The rocket motor powering
the Maverick is the Thiokol TX-633 solid engine.  The Maverick has a maximum
range of about 40 miles, but the practical range at which the TV guidance
system can be used effectively to hit a target is much shorter (probably less 
than 10 miles).

Nearly 19,000 of these A-versions had been built by 1984, when production 
ceased.

AGM-65B:  This was an improved version of the TV Maverick, designed to overcome
some of the weaknesses of the earlier version.  It had a "scene magnification"
camera with a narrower field of view, plus an improved set of cockpit video
symbols that made it easier to handle.  The smaller field of view is said to
provide better target recognition and discrimination at long range, as well
as the ability to lock onto the target at greater range.  The pilot or weapons
officer need not actually see the target, but can instead use the seeker TV
camera in the nose of the Maverick to identify and select the target by looking
at the cockpit display rather than out the window.  The enlarged and clearer
picture enables the pilot to identify the target and fire the missile at a
greater distance and from a greater slant range.  

AGM-65C:  This was the first of the laser-guided Mavericks.  It was designed
to home in on light reflected from a laser-designated target.  The laser used
to designate the target can be carried either by the attacking aircraft
itself, by another aircraft, or by someone on the ground.  The infrared lasers
used for the illumination are the Army AN/TVQ-2 or the Marine Corps AN/PAQ-3
designators used by soldiers on the ground or the airborne Pave Knife, Pave 
Penney, Pave Spike, or Pave Tack systems carried by such aircraft as the OV-10D
Bronco, the F-4, RF-4, F-111, and EF-111.  The laser beams used for the target
illumination can be pulse-coded in such a way that each Maverick missile 
launched will home in only on its intended target, enabling several laser
Mavericks to be in the air simultaneously.

Only a few of the C-version of the Maverick were built.  It never went into
large-scale production. 

AGM-65D:  This was the first of the infrared Mavericks.  It has a passive
infrared imaging detector in place of the television camera.  It operates
in much the same way as the TV Maverick does, only it uses infrared rather
than visible light for the target imaging and tracking.  Infrared detection
can supposedly "see" through battlefield dust and smoke which visible light
cannot penetrate.  In addition, it enables the missile to operate at night. 
It can also spot camouflaged targets which are almost invisible to the
eye but which nevertheless emit heat.  It is claimed that targets can be
distinguished at approximately twice the range of the earlier TV Mavericks.

The infrared sensor consists of a cryogenically-cooled detector mounted on a
gimbal.  The detectors use a rotating faceted mirror to create a television-
like image which is displayed on a cockpit screen.  Once launched, the infrared
Maverick uses a digital centroid seeker to automatically guide the missile
to the center of the target rather than to the point of greatest temperature
differential, thereby increasing the probability of a kill.  It is claimed
that at close range the infrared seeker can regularly discriminate between valid
target vehicles and cold (destroyed) vehicles based on their respective
infrared signatures.

The infrared Maverick can be slaved to an aircraft-mounted sensor such as a 
FLIR, a laser pod, or the APR-38 radar warning system, enabling it to attack  
targets at great range, at night or in bad weather.  The missile can be used in 
conjunction with the Lantirn night and bad-weather sensor and navigation pod
now being fitted to F-16 and A-10 aircraft.  It is claimed that the infrared 
Maverick can attack targets at ranges of up to 25 miles when released from an 
aircraft at altitude.

The D-version was the first to introduce a new, reduced-smoke rocket engine.
Earlier models left a distinct trail in the sky from launch to burnout.

By 1989, 13,800 D-model Mavericks had been delivered.  This version is still
in production.  Raytheon is a second source for this missile.  Combined 
production by Hughes and Raytheon may ultimately add up to over 60,000
missiles. 

AGM-65E:  This is the mass-production version of the laser Maverick.  It 
has a 300-pound penetrator blast/fragmentation warhead that can instantly be
rendered inert while the missile is in flight if it happens to lose its lock
on the target.  The warhead is optimized for destroying hardened targets such
as bunkers, and features a fuse that can be set either to explode upon impact or
delayed until after penetration.  In addition, it has an improved laser tracking
system and digital computer processing capability.  The total weight of the 
missile is 680 pounds.

AGM-65F:  This is the Navy version of the infrared Maverick.  It is similar
to the D version, but has modified computer programs onboard that make it
capable of attacking ships instead of ground targets.  In addition, it carries
an 300-pound antiship warhead capable of either exploding on impact or after 
passing through armor.

AGM-65G:  This is an improved variant of the D version infrared Maverick.
It has the larger and more effective 300-pound warhead fitted to the E-version,
combined with the infrared sensor package fitted to the D-version.  This G-
variant is still under development by Hughes.  New software is under development
which will optimize the tracker for targets such as bunkers and aircraft
hangers.  The software will make it possible for the Maverick to use a lower
trajectory, reducing the likelihood of the missile passing through clouds and
obscuring the seeker. 

There is some talk of developing a millimeter-wave terminal seeker for the
Maverick, enabling it to attack moving targets such as tanks.



Hughes claims that over 3200 Mavericks have been fired, with an overall 85 
percent success rate.  The Air Force says that the infrared version of the
Maverick is the most accurate, having a success rate over 90 percent.  I don't
know under what conditions these tests were carried out, or upon what kinds
of targets the missiles were fired.

I don't know how how easy it is for an enemy on the ground to fool the Maverick
or to make it lose its lock on the target.  I remember hearing some stories
(sorry, don't remember where) about people on the ground being able to
fool the TV Maverick into attacking two-dimensional drawings of tanks propped up
on sticks or else into homing in on cardboard mockups of real military vehicles.
The TV Maverick requires good daylight visibility in order to be effective, and
lighting anomalies such as glare from sunlight reflected off water can cause
the missile to lose its lock on the target.

The laser Maverick has its own set of disadvantages.  The primary one is of
course that it depends on a laser designator that must remain shining on the
target until the missile finally strikes.  This places the designator itself
in danger of attack.  So, the laser Maverick isn't REALLY fire and forget.
In addition, an enemy aware of the threat of the laser Maverick could easily 
devise means of detecting the laser illumination, quickly alerting him that
something deadly may soon be heading his way.  I suspect that the laser
Maverick may be more difficult to "spoof" than the other versions of the
missile, especially because the laser Maverick can be arranged to home in only 
on a reflected infrared source that is pulsing according to a prearranged code.
However, I also assume that the degree of coordination between laser designator 
(either ground or air) and attacking aircraft that is required for a successful
laser Maverick attack must be quite high.  I suspect that this would be
difficult to achieve in an actual battlefield situation.

The infrared Maverick is considerably more expensive than the other versions.
I remember hearing on "Sixty Minutes" that during tests out West, the infrared 
Maverick was easily fooled into attacking burning bushes rather than tanks.  
I also wonder how easy it would be for a determined enemy to fool the infrared
Maverick by using decoys such as flares.  Also, I wonder how immune the
infrared Maverick is to infrared countermeasures gear such as that which
is carried aboard aircraft to thwart attacks from surface-to-air infrared
homers.

I would also expect that it must be quite difficult for a pilot flying in a low-
altitude, high-speed, high-threat environment to be able to watch the TV 
screen, line up his plane, lock onto the target, and fire the Maverick and at
the same time keep from flying into mountains, duck enemy missiles, and avoid
colliding with other friendly aircraft.   I would therefore suppose that the
necessity of doing all of these things at the same time would make a second
crewman (e. g. the weapons officer in a F-4 Phantom) quite useful.  Perhaps
there are readers of sci.military who have some experience in working with the
Maverick who can provide some details.

The Maverick missile has been used by the air forces of Egypt, Greece, Iran,
Pakistan, Jordan, Portugal, Venezuela, Yugoslavia, Singapore, Kuwait, 
Switzerland, Israel, South Korea, Morocco, Saudi Arabia, Sweden, Turkey, and 
West Germany, as well as the United States.  A wide variety of aircraft are
capable of carrying the Maverick.  These include the A-4, A-6, A-7, A-10, AV-8B,
F-4, F-5, F-16, F/A-18, F-111, F-15E, JA 37 Viggen, and the Hawker Hunter Mk 58A
of Switzerland.

I don't have any details about experiences with the Maverick when used in 
actual combat.  I suppose that Mavericks were used by Iran in the recent
Iran-Iraq war, but I have no information on how effective they were.
The Israelis used the TV Maverick operationally during the Yom Kippur War. 
I don't know if the Maverick was ever used in Vietnam.  Perhaps someone else
who reads this group can provide further information.


Joe Baugher				**************************************
AT&T Bell Laboratories			*  "Of all the gin joints in all the *
200 Park Plaza				*  towns in all the world, she walks *
Naperville, Illinois 60566-7050		*  into mine."                       *
(708) 713 4548				**************************************
ihlpm!jfb
jfb200@cbnewsd.att.com
				  Who, me?  Speak for AT&T?  Surely you jest!