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DESCRIPTION:Tactical warfare is the maneuvering within a pre-planned path i
 n a battleground to gain additional advantages while still maintaining foc
 us on the mission. As technology advances\, the battleground has been expa
 nded from a 2-dimensional environment on the ground to a more complex 3-di
 mensional environment in the air and space above the ground. In this scena
 rio\, aircrafts are used as vehicles carrying weapons to deliver them to t
 he targets. The war scenario is an ongoing battle: as soon as one side gai
 ns an advantage through the use of aircrafts\, the other side will also de
 velop and use aircrafts of similar capability to neutralize that advantage
 \; and implement an air defense system to prevent the attacking aircraft t
 o successfully accomplish their mission.\n\nIn this project\, AI technolog
 y is used to develop a well-known tactic of avoiding a heat seeking missil
 e into an implementable algorithm that can be deployed by an onboard compu
 ter. The tactic\, while well known\, has a limitation due to the onboard i
 nstrumentation that does not tell the pilot\, through visualization\, the 
 exact position and velocity of an incoming missile even though sensors alr
 eady had this complete information. Thus\, the algorithm provides an addit
 ional advantage of visualizing exactly the positions and velocities of the
  aircraft under attack and the incoming missile so that artificial bias ca
 n be calculated and implemented to push the aircraft out of the path of th
 e missile to avoid the collision. Computer simulations showed the effectiv
 eness of the algorithm\, even in scenarios where more than one missile is 
 used in an attack. However\, the human in the loop (pilots)\, while recogn
 izing the effectiveness\, still prefer manual control because it is their 
 life on the line and they understandably want to manage it with the skills
  that they already acquired through rigorous training.\n\nThe discussion o
 f the results will examine a scheme known as augmented intelligence where 
 the AI algorithm still allows the pilot the complete control of the aircra
 ft and only activates the additional bias at the last moment of an imminen
 t collision. This co-existence between human and machine can gain easier a
 cceptance while increasing the effectiveness of avoiding missiles. However
 \, as mentioned earlier\, as soon as one side gains some tactical advantag
 es\, the other side will seek to neutralize this advantage. Thus\, this pr
 oject also examines the use of swarm intelligence to coordinate many missi
 les to attack an aircraft\, aiming the missiles at an envelope of attack i
 nstead of directly at the aircraft\, allowing the aircraft to maneuver onl
 y within the envelope while this envelope gradually shrinks to the eventua
 l point of collision. Understanding this coordination will provide insight
 s to improve the missile avoidance beyond the current tactics in the futur
 e.\n\nCo-sponsored by: David Bondurant\n\nSpeaker(s): Dr Trung T. Pham\, \
 n\nVirtual: https://events.vtools.ieee.org/m/316170
LOCATION:Virtual: https://events.vtools.ieee.org/m/316170
ORGANIZER:john@e-liteworks.com
SEQUENCE:0
SUMMARY:Using Artificial Bias to Assist Pilots in Avoiding Missiles
URL;VALUE=URI:https://events.vtools.ieee.org/m/316170
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;&lt;strong&gt;Tactical warfare&lt;/strong&gt;&amp;nbsp\;is
  the maneuvering within a pre-planned path in a battleground to gain addit
 ional advantages while still maintaining focus on the mission. As technolo
 gy advances\, the battleground has been expanded from a 2-dimensional envi
 ronment on the ground to a more complex 3-dimensional environment in the a
 ir and space above the ground. In this scenario\, aircrafts are used as ve
 hicles carrying weapons to deliver them to the targets. The war scenario i
 s an ongoing battle: as soon as one side gains an advantage through the us
 e of aircrafts\, the other side will also develop and use aircrafts of sim
 ilar capability to neutralize that advantage\; and implement an air defens
 e system to prevent the attacking aircraft to successfully accomplish thei
 r mission.&lt;/p&gt;\n&lt;p&gt;&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;In this project\,&amp;nbsp\;&lt;strong&gt;AI tech
 nology&lt;/strong&gt;&amp;nbsp\;is used to develop a well-known tactic of avoiding a
  heat seeking missile into an implementable algorithm that can be deployed
  by an onboard computer. The tactic\, while well known\, has a limitation 
 due to the onboard instrumentation that does not tell the pilot\, through 
 visualization\, the exact position and velocity of an incoming missile eve
 n though sensors already had this complete information. Thus\, the algorit
 hm provides an additional advantage of visualizing exactly the positions a
 nd velocities of the aircraft under attack and the incoming missile so tha
 t artificial bias can be calculated and implemented to push the aircraft o
 ut of the path of the missile to avoid the collision. Computer simulations
  showed the effectiveness of the algorithm\, even in scenarios where more 
 than one missile is used in an attack. However\, the human in the loop (pi
 lots)\, while recognizing the effectiveness\, still prefer manual control 
 because it is their life on the line and they understandably want to manag
 e it with the skills that they already acquired through rigorous training.
 &lt;/p&gt;\n&lt;p&gt;&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;The discussion of the results will examine a sche
 me known as&amp;nbsp\;&lt;strong&gt;augmented intelligence&lt;/strong&gt;&amp;nbsp\;where the 
 AI algorithm still allows the pilot the complete control of the aircraft a
 nd only activates the additional bias at the last moment of an imminent co
 llision. This co-existence between human and machine can gain easier accep
 tance while increasing the effectiveness of avoiding missiles. However\, a
 s mentioned earlier\, as soon as one side gains some tactical advantages\,
  the other side will seek to neutralize this advantage. Thus\, this projec
 t also examines the use of swarm intelligence to coordinate many missiles 
 to attack an aircraft\, aiming the missiles at an envelope of attack inste
 ad of directly at the aircraft\, allowing the aircraft to maneuver only wi
 thin the envelope while this envelope gradually shrinks to the eventual po
 int of collision. Understanding this coordination will provide insights to
  improve the missile avoidance beyond the current tactics in the future.&lt;/
 p&gt;
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