Difference between revisions of "AGM-62A Walleye I (505 kg)"

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{{About
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| about = TV-guided '''{{PAGENAME}}'''
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| usage = the "extended-range" Walleye
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| link = AGM-62A Walleye I ER (510 kg)
 +
}}
 
== Description ==
 
== Description ==
 
<!-- ''Write an introduction to the article in 2-3 small paragraphs. Briefly tell us about the history of the development and combat using the weaponry and also about its features. Compile a list of air, ground, or naval vehicles that feature this weapon system in the game.'' -->
 
<!-- ''Write an introduction to the article in 2-3 small paragraphs. Briefly tell us about the history of the development and combat using the weaponry and also about its features. Compile a list of air, ground, or naval vehicles that feature this weapon system in the game.'' -->
 
[[File:WeaponImage {{PAGENAME}}.png|thumb|left|420px|The AGM-62A Walleye I guided bomb (scale is approximate)]]
 
[[File:WeaponImage {{PAGENAME}}.png|thumb|left|420px|The AGM-62A Walleye I guided bomb (scale is approximate)]]
 
{{Break}}
 
{{Break}}
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The '''AGM-62A Walleye I''' is an American guided bomb for aircraft use. It is one of the first guided bomb introduced into War Thunder in [[Update "Ground Breaking"]].
+
The '''AGM-62A Walleye I''' is an American guided bomb for aircraft use. It is one of the first guided bombs introduced into War Thunder in [[Update "Ground Breaking"]].
  
 
=== Vehicles equipped with this weapon ===
 
=== Vehicles equipped with this weapon ===
Line 14: Line 19:
  
 
== General info ==
 
== General info ==
−
''Tell us about the tactical and technical characteristics of the bomb.''
+
<!--''Tell us about the tactical and technical characteristics of the bomb.''-->
−
 
+
{| class="wikitable" style="text-align:center"
 +
! colspan="2" | Bomb characteristics
 +
|-
 +
| '''Guidance''' || TV
 +
|-
 +
| '''Mass''' || 505 kg
 +
|-
 +
| '''Explosive mass''' || 201.8 kg
 +
|-
 +
| '''Explosive type''' || Composition B
 +
|-
 +
| '''TNT equivalent''' || 264.36 kg
 +
|-
 +
|}
 
=== Effective damage ===
 
=== Effective damage ===
 
''Describe the type of damage produced by this type of bomb (high explosive, splash damage, etc)''
 
''Describe the type of damage produced by this type of bomb (high explosive, splash damage, etc)''
Line 23: Line 41:
  
 
== Usage in battles ==
 
== Usage in battles ==
−
''Describe situations when you would utilise this bomb in-game (vehicle, pillbox, base, etc)''
+
<!--''Describe situations when you would utilise this bomb in-game (vehicle, pillbox, base, etc)''-->
 +
In War Thunder, the AGM-62 has a TV guidance sensor similar to the [[AGM-65B]] missile. It is best used against ground targets, moving or static, and when there are no SAM threats present. Attempting to use the AGM-62 in a SAM heavy environment will likely get the launching aircraft shot down, as by the time one gets to a proper release altitude and speed, found a target, and then dropped it, a SAM system will have likely already spotted and engaged you (often while you're busy searching for a target). Furthermore, the slow moving, predictable nature of the Walleye means that radar guided AAA can easily destroy it should they spot it.
 +
 
 +
The AGM-62 can also lock positions on the ground making it difficult to determine when the guidance system has locked onto a vehicle/target or the position near the vehicle/target. This is an issue for ground realistic battles where a stopped target may start moving at any moment making it important that the vehicle is being tracked, and with no way to determine whether the target or the ground is locked, it can make these weapons somewhat annoying to use in ground RB. Furthermore, the AGM-62 uses whatever bomb timer you have set, so remember to reset it to "0.0s" when selecting Walleye loadouts, as a bomb delay for the Walleye serves no purpose.
 +
 
 +
Also remember that in night battles the sensor on the AGM-62 cannot lock anything, making it useless, so choose a non-Walleye loadout in said battles.
  
 
=== Pros and cons ===
 
=== Pros and cons ===
−
<!--''Summarise and briefly evaluate the weaponry in terms of its characteristics and combat effectiveness. Mark pros and cons as a list.''-->
 
−
 
 
'''Pros:'''
 
'''Pros:'''
  
 
* Precision-guided bomb allows for greater flexibility on where to release weapon
 
* Precision-guided bomb allows for greater flexibility on where to release weapon
−
* Once locked-on and released, the aircraft can begin egressing from the area
+
* Explosive payload is large enough for close hits to do devastating damages to ground targets.
−
* Bomb can continue tracking moving visual targets upon release
+
* Can be lobbed onto a target from quite a long distance if deployed at high speed and altitude
 +
* Costs a low amount of spawn points per weapon
 +
* Can be used against slow moving/hovering helicopters
  
 
'''Cons:'''
 
'''Cons:'''
  
 
* Large size means only a few can be carried by aircraft
 
* Large size means only a few can be carried by aircraft
−
* Limited effectiveness in night conditions, since it's TV-guided
+
* Cannot lock targets at night (even if the target is illuminated)
−
* TV-guided camera views from the aircraft's frontal arc, requires pointing the aircraft at the general location of the enemy to begin targeting  
+
* Cannot be dropped without a lock
 +
* Cannot adjust its magnification level
 +
* Will undershoot the target if the release speed/altitude is too low
 +
* Is relatively easy to intercept with radar guided AAA/SAMs
 +
* The nature of the Walleye almost always exposes the launching aircraft to the enemy as you must climb above the battlefield before launching the weapon
 +
*The TV-sensor views from the aircraft's frontal arc, requires pointing the aircraft at the general location of the enemy to begin targeting
 +
** Said sensor is also in black and white only, hindering target identification
  
 
== History ==
 
== History ==
 
<!--''Examine the history of the creation and combat usage of the weapon in more detail than in the introduction. If the historical reference turns out to be too long, take it to a separate article, taking a link to the article about the weapon and adding a block "/History" (example: <nowiki>https://wiki.warthunder.com/(Weapon-name)/History</nowiki>) and add a link to it here using the <code>main</code> template. Be sure to reference text and sources by using <code><nowiki><ref></ref></nowiki></code>, as well as adding them at the end of the article with <code><nowiki><references /></nowiki></code>.''-->
 
<!--''Examine the history of the creation and combat usage of the weapon in more detail than in the introduction. If the historical reference turns out to be too long, take it to a separate article, taking a link to the article about the weapon and adding a block "/History" (example: <nowiki>https://wiki.warthunder.com/(Weapon-name)/History</nowiki>) and add a link to it here using the <code>main</code> template. Be sure to reference text and sources by using <code><nowiki><ref></ref></nowiki></code>, as well as adding them at the end of the article with <code><nowiki><references /></nowiki></code>.''-->
  
−
The original concept of a glide-bomb was a bomb that was essentially equipped with wings to allow a bombardier in the cockpit of an aircraft to guide the bomb into the target by means of wires or radio control, typically by using a joystick. Examples include the early VB-1 AZON, which was in essence a bolt-on tail assembly for the [[AN-M65A1 (1,000 lb)|AN-M65A1]] thousand-pound general purpose bomb that could steer the bomb left and right, to the gargantuan VB-13/ASM-A-1 TARZON, which mated a radio-control system for an earlier development of AZON called RAZON to the massive British-designed 12,000-pound Tallboy Bomb, designed to be dropped from the [[B-29A-BN|B-29 Superfortress]] on large, hard targets, such as enemy ships and factory complexes. The two bombs, for their time, were relatively successful, but still exposed several inherent vulnerabilities to their design.[[File:Walleye Seeker Display.png|alt=Rifle! An early Walleye's seeker display from footage, presumably from combat in vietnam.note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.|thumb|Rifle! An early Walleye's seeker footage, presumably from combat in Vietnam. Note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.|link=https://wiki.warthunder.com/File:Walleye_Seeker_Display.png]]The first problem was that in order to guide such a weapon, an aircraft '''must''' fly straight and level, as well as staying in a position where the bomb can still be seen from the bombardier's sight, or at the very least, the cockpit. The technology of the time limited the AZON and TARZON to Azimuth Only, which meant that the bomb required the bombardier to aim the bomb like a regular bomb, and then provide minor course corrections using the azimuth system. The bomb could not, for example, be steered into the path of an oncoming train, nor track and eventually hit a ship moving towards the dropping aircraft. AZON and TARZON were thus usually employed against large, wide targets, like railway bridges, marshalling yards, factories, and dams, with great success. Destroying a moving target was very much. Other attempts at self-guided bombs of the era, such as the ASM-N-2 "Bat", used radar. Radar technology, while having come far since the turn of the century, was very much still in its infancy compared to the modern day, and the Bat was easily confused by ground clutter.
+
The original concept of a glide-bomb was a bomb that was essentially equipped with wings to allow a bombardier in the cockpit of an aircraft to guide the bomb into the target by means of wires or radio control, typically by using a joystick. Examples include the early VB-1 AZON, which was in essence a bolt-on tail assembly for the [[AN-M65A1 (1,000 lb)|AN-M65A1]] thousand-pound general purpose bomb that could steer the bomb left and right, to the gargantuan VB-13/ASM-A-1 TARZON, which mated a radio-control system for an earlier development of AZON called RAZON to the massive British-designed 12,000-pound Tallboy Bomb, designed to be dropped from the [[B-29A-BN|B-29 Superfortress]] on large, hard targets, such as enemy ships and factory complexes. The two bombs, for their time, were relatively successful, but still exposed several inherent vulnerabilities to their design.[[File:Walleye Seeker Display.png|alt=Rifle! An early Walleye's seeker display from footage, presumably from combat in vietnam.note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.|thumb|Rifle! An early Walleye's seeker footage, presumably from combat in Vietnam. Note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.]]The first problem was that in order to guide such a weapon, an aircraft '''must''' fly straight and level, as well as staying in a position where the bomb can still be seen from the bombardier's sight, or at the very least, the cockpit. The technology of the time limited the AZON and TARZON to Azimuth Only, which meant that the bomb required the bombardier to aim the bomb like a regular bomb, and then provide minor course corrections using the azimuth system. The bomb could not, for example, be steered into the path of an oncoming train, nor track and eventually hit a ship moving towards the dropping aircraft. AZON and TARZON were thus usually employed against large, wide targets, like railway bridges, marshalling yards, factories, and dams, with great success. Destroying a moving target was very much. Other attempts at self-guided bombs of the era, such as the ASM-N-2 "Bat", used radar. Radar technology, while having come far since the turn of the century, was very much still in its infancy compared to the modern day, and the Bat was easily confused by ground clutter.
  
 
The Walleye's genesis came about thanks to a TV-loving NAS China Lake engineer named Norman Kay. In his spare time, Kay enjoyed creating television sets, and in 1958, he developed a camera that could follow and trace moving items in a picture by using a "blip" that it could project. By using a piece of circuit-board, Kay had just created the first device capable of tracking moving objects by using the difference in contrast between said item and the background. Later refinements would follow, and with a team of fellow engineers including Jack Crawford, Dave Livingston, George Lewis, Larry Brown, Steve Brugler, Bob Cunningham and long-time friend William H. Woodworth, would engineer the bomb that would eventually become Walleye. Among other challenges that they faced and defeated were refining the bomb's trajectory, eliminating the use of vacuum tubes in order to both simplify production and to ensure that the bomb was capable of making the turns and twists needed by a guided weapon, and withstand the shock of carrier catapult takeoffs, and the dilemma of procuring funding- initially by wheedling funding away from the [[AIM-9B Sidewinder|AIM-9 Sidewinder]] project, which was concurrent to the tv seeker's development. By 1963, the development of the bomb had become official, and after a period of competition between various firms, Martin-Marietta won the contract in 1966 for full-rate production.
 
The Walleye's genesis came about thanks to a TV-loving NAS China Lake engineer named Norman Kay. In his spare time, Kay enjoyed creating television sets, and in 1958, he developed a camera that could follow and trace moving items in a picture by using a "blip" that it could project. By using a piece of circuit-board, Kay had just created the first device capable of tracking moving objects by using the difference in contrast between said item and the background. Later refinements would follow, and with a team of fellow engineers including Jack Crawford, Dave Livingston, George Lewis, Larry Brown, Steve Brugler, Bob Cunningham and long-time friend William H. Woodworth, would engineer the bomb that would eventually become Walleye. Among other challenges that they faced and defeated were refining the bomb's trajectory, eliminating the use of vacuum tubes in order to both simplify production and to ensure that the bomb was capable of making the turns and twists needed by a guided weapon, and withstand the shock of carrier catapult takeoffs, and the dilemma of procuring funding- initially by wheedling funding away from the [[AIM-9B Sidewinder|AIM-9 Sidewinder]] project, which was concurrent to the tv seeker's development. By 1963, the development of the bomb had become official, and after a period of competition between various firms, Martin-Marietta won the contract in 1966 for full-rate production.
Line 49: Line 78:
 
The AGM-62 was engineered to have a link between the seeker and a small TV monitor in the launch aircraft's cockpit, which is what would be used to select the target for the seeker. In the words of one of the engineers- the seeker "wasn't smart enough" to know that "a bridge was a bridge", but it could use the contrast between the bridge and whatever surrounded it and home in on the patch of contrast differential. Proposed features for the first iteraton included a datalink, which would not be integrated on initial Walleye I variants. However, the camera could still be used to see where the bomb was going, which would be important for allowing fire-and-forget capability. Pilots could now drop a bomb and then immediately turn away from the target, monitoring the bomb's progress, and once the data-link ability was integrated, provide course corrections for the bomb.
 
The AGM-62 was engineered to have a link between the seeker and a small TV monitor in the launch aircraft's cockpit, which is what would be used to select the target for the seeker. In the words of one of the engineers- the seeker "wasn't smart enough" to know that "a bridge was a bridge", but it could use the contrast between the bridge and whatever surrounded it and home in on the patch of contrast differential. Proposed features for the first iteraton included a datalink, which would not be integrated on initial Walleye I variants. However, the camera could still be used to see where the bomb was going, which would be important for allowing fire-and-forget capability. Pilots could now drop a bomb and then immediately turn away from the target, monitoring the bomb's progress, and once the data-link ability was integrated, provide course corrections for the bomb.
  
−
Walleye I used a thousand-pound warhead from the [[LDGP Mk 83 (1,000 lb)|Mark 83]] 1000 pound General-Purpose bomb, recently developed in the 1950s in response to the need for lower-drag bombs. The unit was initially powered by a heavy set of lithium-ion batteries, but these were soon replaced by a ram air turbine on the back of the bomb, giving it the distinctively large propellor, different from propellor-driven tail and nose fuzes on older GP bombs like the [[AN-M65A1]] that its predecessors had used. Large, triangular fins driven by hydraulic actuators were attached onto the rear, allowing the bomb to move left and right, and stabilize on the target. The seeker was the first-ever fully solid-state TV camera in existence. The bomb was meant to incorporate a revolutionary new data-link feature to allow the pilot to aim and steer the bomb while in flight, but tihs feature was temporarily dropped due to time constraints. Later versions of the bomb would reincorporate this feature into the bomb, allowing mid-flight course corrections. The bombs would find great success in Vietnam, chalking up successful missions such as the final destruction of the infamous Thanh Hoa Bridge and several successful missions against power plants, including a raid that destroyed Hanoi's main source of power a mere two days after Ho Chi Minh's birthday. The bomb would continue to be used, including with the data-link upgrade, during the Gulf War in 1991, after which it was gradually retired from US Navy and Air Force service as newer warshots, such as the GBU-15, AGM-65, JDAM and improved Paveway Variants came into service, and improved targeting pods allowed for laser-guided bombs to be more easily guided onto target.
+
Walleye I used a thousand-pound warhead from the [[LDGP Mk 83 (1,000 lb)|1,000 lb Mark 83]] General-Purpose bomb, recently developed in the 1950s in response to the need for lower-drag bombs. The unit was initially powered by a heavy set of lithium-ion batteries, but these were soon replaced by a ram air turbine on the back of the bomb, giving it the distinctively large propellor, different from propellor-driven tail and nose fuzes on older GP bombs like the [[AN-M65A1]] that its predecessors had used. Large, triangular fins driven by hydraulic actuators were attached onto the rear, allowing the bomb to move left and right, and stabilize on the target. The seeker was the first-ever fully solid-state TV camera in existence. The bomb was meant to incorporate a revolutionary new data-link feature to allow the pilot to aim and steer the bomb while in flight, but tihs feature was temporarily dropped due to time constraints. Later versions of the bomb would reincorporate this feature into the bomb, allowing mid-flight course corrections. The bombs would find great success in Vietnam, chalking up successful missions such as the final destruction of the infamous Thanh Hoa Bridge and several successful missions against power plants, including a raid that destroyed Hanoi's main source of power a mere two days after Ho Chi Minh's birthday. The bomb would continue to be used, including with the data-link upgrade, during the Gulf War in 1991, after which it was gradually retired from US Navy and Air Force service as newer warshots, such as the GBU-15, AGM-65, JDAM and improved Paveway Variants came into service, and improved targeting pods allowed for laser-guided bombs to be more easily guided onto target.
 
== Media ==
 
== Media ==
 
''Excellent additions to the article would be video guides, screenshots from the game, and photos.''
 
''Excellent additions to the article would be video guides, screenshots from the game, and photos.''
Line 71: Line 100:
 
* [[wt:en/news/7398-development-new-guided-aircraft-bombs-en|[Devblog] New guided aircraft bombs]]
 
* [[wt:en/news/7398-development-new-guided-aircraft-bombs-en|[Devblog] New guided aircraft bombs]]
  
−
{{Bombs}}
+
{{Guided bombs}}
  
 
[[Category:Suspended armaments]]
 
[[Category:Suspended armaments]]

Latest revision as of 11:24, 25 June 2023

This page is about the TV-guided AGM-62A Walleye I (505 kg). For the "extended-range" Walleye, see AGM-62A Walleye I ER (510 kg).

Description

The AGM-62A Walleye I guided bomb (scale is approximate)


The AGM-62A Walleye I is an American guided bomb for aircraft use. It is one of the first guided bombs introduced into War Thunder in Update "Ground Breaking".

Vehicles equipped with this weapon

General info

Bomb characteristics
Guidance TV
Mass 505 kg
Explosive mass 201.8 kg
Explosive type Composition B
TNT equivalent 264.36 kg

Effective damage

Describe the type of damage produced by this type of bomb (high explosive, splash damage, etc)

Comparison with analogues

Give a comparative description of bombs that have firepower equal to this weapon.

Usage in battles

In War Thunder, the AGM-62 has a TV guidance sensor similar to the AGM-65B missile. It is best used against ground targets, moving or static, and when there are no SAM threats present. Attempting to use the AGM-62 in a SAM heavy environment will likely get the launching aircraft shot down, as by the time one gets to a proper release altitude and speed, found a target, and then dropped it, a SAM system will have likely already spotted and engaged you (often while you're busy searching for a target). Furthermore, the slow moving, predictable nature of the Walleye means that radar guided AAA can easily destroy it should they spot it.

The AGM-62 can also lock positions on the ground making it difficult to determine when the guidance system has locked onto a vehicle/target or the position near the vehicle/target. This is an issue for ground realistic battles where a stopped target may start moving at any moment making it important that the vehicle is being tracked, and with no way to determine whether the target or the ground is locked, it can make these weapons somewhat annoying to use in ground RB. Furthermore, the AGM-62 uses whatever bomb timer you have set, so remember to reset it to "0.0s" when selecting Walleye loadouts, as a bomb delay for the Walleye serves no purpose.

Also remember that in night battles the sensor on the AGM-62 cannot lock anything, making it useless, so choose a non-Walleye loadout in said battles.

Pros and cons

Pros:

  • Precision-guided bomb allows for greater flexibility on where to release weapon
  • Explosive payload is large enough for close hits to do devastating damages to ground targets.
  • Can be lobbed onto a target from quite a long distance if deployed at high speed and altitude
  • Costs a low amount of spawn points per weapon
  • Can be used against slow moving/hovering helicopters

Cons:

  • Large size means only a few can be carried by aircraft
  • Cannot lock targets at night (even if the target is illuminated)
  • Cannot be dropped without a lock
  • Cannot adjust its magnification level
  • Will undershoot the target if the release speed/altitude is too low
  • Is relatively easy to intercept with radar guided AAA/SAMs
  • The nature of the Walleye almost always exposes the launching aircraft to the enemy as you must climb above the battlefield before launching the weapon
  • The TV-sensor views from the aircraft's frontal arc, requires pointing the aircraft at the general location of the enemy to begin targeting
    • Said sensor is also in black and white only, hindering target identification

History

The original concept of a glide-bomb was a bomb that was essentially equipped with wings to allow a bombardier in the cockpit of an aircraft to guide the bomb into the target by means of wires or radio control, typically by using a joystick. Examples include the early VB-1 AZON, which was in essence a bolt-on tail assembly for the AN-M65A1 thousand-pound general purpose bomb that could steer the bomb left and right, to the gargantuan VB-13/ASM-A-1 TARZON, which mated a radio-control system for an earlier development of AZON called RAZON to the massive British-designed 12,000-pound Tallboy Bomb, designed to be dropped from the B-29 Superfortress on large, hard targets, such as enemy ships and factory complexes. The two bombs, for their time, were relatively successful, but still exposed several inherent vulnerabilities to their design.
Rifle! An early Walleye's seeker display from footage, presumably from combat in vietnam.note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.
Rifle! An early Walleye's seeker footage, presumably from combat in Vietnam. Note the footage grain and the eight lines running crosswise transposed over the screen. These eight lines show where azimuth and elevation are in relation to the bomb, as well as outlining a square that shows what the bomb is currently guiding onto.
The first problem was that in order to guide such a weapon, an aircraft must fly straight and level, as well as staying in a position where the bomb can still be seen from the bombardier's sight, or at the very least, the cockpit. The technology of the time limited the AZON and TARZON to Azimuth Only, which meant that the bomb required the bombardier to aim the bomb like a regular bomb, and then provide minor course corrections using the azimuth system. The bomb could not, for example, be steered into the path of an oncoming train, nor track and eventually hit a ship moving towards the dropping aircraft. AZON and TARZON were thus usually employed against large, wide targets, like railway bridges, marshalling yards, factories, and dams, with great success. Destroying a moving target was very much. Other attempts at self-guided bombs of the era, such as the ASM-N-2 "Bat", used radar. Radar technology, while having come far since the turn of the century, was very much still in its infancy compared to the modern day, and the Bat was easily confused by ground clutter.

The Walleye's genesis came about thanks to a TV-loving NAS China Lake engineer named Norman Kay. In his spare time, Kay enjoyed creating television sets, and in 1958, he developed a camera that could follow and trace moving items in a picture by using a "blip" that it could project. By using a piece of circuit-board, Kay had just created the first device capable of tracking moving objects by using the difference in contrast between said item and the background. Later refinements would follow, and with a team of fellow engineers including Jack Crawford, Dave Livingston, George Lewis, Larry Brown, Steve Brugler, Bob Cunningham and long-time friend William H. Woodworth, would engineer the bomb that would eventually become Walleye. Among other challenges that they faced and defeated were refining the bomb's trajectory, eliminating the use of vacuum tubes in order to both simplify production and to ensure that the bomb was capable of making the turns and twists needed by a guided weapon, and withstand the shock of carrier catapult takeoffs, and the dilemma of procuring funding- initially by wheedling funding away from the AIM-9 Sidewinder project, which was concurrent to the tv seeker's development. By 1963, the development of the bomb had become official, and after a period of competition between various firms, Martin-Marietta won the contract in 1966 for full-rate production.

The AGM-62 was engineered to have a link between the seeker and a small TV monitor in the launch aircraft's cockpit, which is what would be used to select the target for the seeker. In the words of one of the engineers- the seeker "wasn't smart enough" to know that "a bridge was a bridge", but it could use the contrast between the bridge and whatever surrounded it and home in on the patch of contrast differential. Proposed features for the first iteraton included a datalink, which would not be integrated on initial Walleye I variants. However, the camera could still be used to see where the bomb was going, which would be important for allowing fire-and-forget capability. Pilots could now drop a bomb and then immediately turn away from the target, monitoring the bomb's progress, and once the data-link ability was integrated, provide course corrections for the bomb.

Walleye I used a thousand-pound warhead from the 1,000 lb Mark 83 General-Purpose bomb, recently developed in the 1950s in response to the need for lower-drag bombs. The unit was initially powered by a heavy set of lithium-ion batteries, but these were soon replaced by a ram air turbine on the back of the bomb, giving it the distinctively large propellor, different from propellor-driven tail and nose fuzes on older GP bombs like the AN-M65A1 that its predecessors had used. Large, triangular fins driven by hydraulic actuators were attached onto the rear, allowing the bomb to move left and right, and stabilize on the target. The seeker was the first-ever fully solid-state TV camera in existence. The bomb was meant to incorporate a revolutionary new data-link feature to allow the pilot to aim and steer the bomb while in flight, but tihs feature was temporarily dropped due to time constraints. Later versions of the bomb would reincorporate this feature into the bomb, allowing mid-flight course corrections. The bombs would find great success in Vietnam, chalking up successful missions such as the final destruction of the infamous Thanh Hoa Bridge and several successful missions against power plants, including a raid that destroyed Hanoi's main source of power a mere two days after Ho Chi Minh's birthday. The bomb would continue to be used, including with the data-link upgrade, during the Gulf War in 1991, after which it was gradually retired from US Navy and Air Force service as newer warshots, such as the GBU-15, AGM-65, JDAM and improved Paveway Variants came into service, and improved targeting pods allowed for laser-guided bombs to be more easily guided onto target.

Media

Excellent additions to the article would be video guides, screenshots from the game, and photos.

See also

External links


Guided bombs
USA 


500 lb  GBU-38(V)2/B JDAM (500 lb)
1,092 lb  GBU-16 Paveway II
505 kg  AGM-62A Walleye I
510 kg  AGM-62A Walleye I ER
1,970 lb  GBU-31 JDAM
2,000 lb  GBU-8 · GBU-15(V)1/B · GBU-15(V)2/B
957 kg  GBU-10 Paveway II
Germany 
1,400 kg  PC 1400 X (Fritz X)*
USSR 
50 kg  KAB-50L · KAB-50TV
500 kg  KAB-500Kr · KAB-500Kr-E · KAB-500L · KAB-500S
1,500 kg  KAB-1500Kr · KAB-1500L
Britain 
277 kg  GBU-12 Paveway II
546 kg  Mk.13
2,000 lb  GBU-24 Paveway III
China 
250 kg  GB250 · LS-6 250
500 kg  GB500 · LS-6 500
1,000 kg  GB1000
Italy 
277 kg  BA-FG-230-Lizard-2
France 
400 kg  BGL-400
970 kg  BGL-1000
  * Armour-piercing bomb
See also  List of unguided bombs · List of armour-piercing bombs · List of retarded bombs

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