Martian2
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Conventional wisdom says that a stealth aircraft cannot be detected with infrared until WVR (ie. within visual range). The reason is due to geometry. The engine nozzles are in the back of the aircraft. As the F-22 is flying towards you, the aircraft itself is blocking the infrared signature.
Perpendicular patrol path
The obvious solution is to obtain a good look at the stealth aircraft engine exhaust. Thus, you need a stealth drone with EODAS to fly perpendicular to the expected flight path of incoming stealth aircraft. After a stealth aircraft passes the drone patrol line, the hot engines and exhaust should be clearly visible in infrared.
EODAS inhibits use of supercruise
Also, the stealth drone will inhibit the use of supercruise. The use of supercruise will light up the drone's infrared detectors like a Christmas tree.
By assigning a squadron of stealth fighters to the stealth drone, the defender can capitalize on the infrared detection of a stealth aircraft. In actual practice, there should be multiple groups of stealth drones and accompanying protective stealth fighters.
Infrared overhead perspective
In theory, a high-flying stealth drone (with infrared detectors) at 85,000 feet using an overhead perspective should be effective as well. There should be an F-22 or B-2 sized moving-infrared signature that does not comport with the infrared signature of the East China Sea waters.
Thousand of buoys with infrared detectors looking up
A third option is to deploy thousands of buoys with infrared detectors in the East China Sea. The sky is a uniform temperature. A jet exhaust passing overhead should register as a temperature anomaly. Of course, infrared detectors can also be placed on fishing boats, commercial ships, and military ships. On land, thousands of infrared detectors looking up can be deployed as well.
The objective is to look for the weak point of a stealth aircraft and devise a strategy to capitalize on it. By combining my suggestions on detecting a stealth aircraft in X-band/S-band and infrared, the incoming stealth aircraft will have a fight on their hands long before they reach their intended target.
Passive infrared detection is superior to active X-band/S-band overhead look-down search
Obviously, infrared detection is superior to X-band/S-band detection. Infrared is passive. X-band/S-band from an overhead high-flying drone is active. If you haven't read it, here's the link to my overhead X-band/S-band search for a stealth aircraft: Detecting Stealth Aircraft with X-band or S-band radar
Passive infrared will also pick up stealth cruise missiles
Thousands of passive infrared detectors on buoys have multiple uses. Not only are they useful at detecting stealth aircraft, the buoys can also detect stealth and regular cruise missiles. The buoy lines are an early-warning alert system.
In conclusion, my opinion is that stealth technology is being eroded when the other side has a comprehensive understanding of the strengths and weaknesses of stealth. By exploiting the weaknesses of stealth, a stealth aircraft becomes highly vulnerable.
Perpendicular patrol path
The obvious solution is to obtain a good look at the stealth aircraft engine exhaust. Thus, you need a stealth drone with EODAS to fly perpendicular to the expected flight path of incoming stealth aircraft. After a stealth aircraft passes the drone patrol line, the hot engines and exhaust should be clearly visible in infrared.
EODAS inhibits use of supercruise
Also, the stealth drone will inhibit the use of supercruise. The use of supercruise will light up the drone's infrared detectors like a Christmas tree.
By assigning a squadron of stealth fighters to the stealth drone, the defender can capitalize on the infrared detection of a stealth aircraft. In actual practice, there should be multiple groups of stealth drones and accompanying protective stealth fighters.
Infrared overhead perspective
In theory, a high-flying stealth drone (with infrared detectors) at 85,000 feet using an overhead perspective should be effective as well. There should be an F-22 or B-2 sized moving-infrared signature that does not comport with the infrared signature of the East China Sea waters.
Thousand of buoys with infrared detectors looking up
A third option is to deploy thousands of buoys with infrared detectors in the East China Sea. The sky is a uniform temperature. A jet exhaust passing overhead should register as a temperature anomaly. Of course, infrared detectors can also be placed on fishing boats, commercial ships, and military ships. On land, thousands of infrared detectors looking up can be deployed as well.
The objective is to look for the weak point of a stealth aircraft and devise a strategy to capitalize on it. By combining my suggestions on detecting a stealth aircraft in X-band/S-band and infrared, the incoming stealth aircraft will have a fight on their hands long before they reach their intended target.
Passive infrared detection is superior to active X-band/S-band overhead look-down search
Obviously, infrared detection is superior to X-band/S-band detection. Infrared is passive. X-band/S-band from an overhead high-flying drone is active. If you haven't read it, here's the link to my overhead X-band/S-band search for a stealth aircraft: Detecting Stealth Aircraft with X-band or S-band radar
Passive infrared will also pick up stealth cruise missiles
Thousands of passive infrared detectors on buoys have multiple uses. Not only are they useful at detecting stealth aircraft, the buoys can also detect stealth and regular cruise missiles. The buoy lines are an early-warning alert system.
In conclusion, my opinion is that stealth technology is being eroded when the other side has a comprehensive understanding of the strengths and weaknesses of stealth. By exploiting the weaknesses of stealth, a stealth aircraft becomes highly vulnerable.
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