Comparision of the Capabilities of any AAM's can be made in this thread.
I wanted to compare Capabilities of ASRAAM and Python-4.
Aerodynamics:The AIM-132 is a high-speed short-range rocket-powered missile with a low-drag configuration without any forward flying surfaces. The missile is compatible with all available target designation systems like radar, electro-optical sensors and helmet-mounted cueing sights, and its low-smoke solid-propellant rocket motor provides very high acceleration off the launch rail. Using its four cruciform tail surfaces, the ASRAAM can pull up to 50 g immediately after launch
ASRAAM has 90 degree off boresight capability.
The Python 4 is a true fourth generation missile, designed from the ground up for the demanding requirements of this style of air combat. It employs an all aspect gimballed seeker designed for large off boresight acquisition and tracking angles, and a high tracking rate. It also employs a new powerplant, and unique aerodynamics specifically optimised for high agility.
Python-4 has in excess of 60 degree off boresight capability(Exact figures not yet disclosed)
Guidance:
ASRAAM has the new Focal Plane Array IIR (Imaging Infrared) seeker Similar to the one in AIM-9X.
It has Counter measure Resistance and capability of Lock on after Launch.
It employs DSP(Digital Signal Processing) which will Improve Aquisition range.
Unfortunately Python-4 Does not have the capability of Lock on after Launch Capability and Lacks the Focal Plane Array Infra Red Seeker like in ASRAAM.
Can anybody tell me what is this proporitional Navigation Homing Algorithm and what advantage will an AAM have with this.
Warhead and Fuze:
ASRAAM is armed with blast Fragmentation Warhead and Laser Proximity Fuze.
Python has the same Blast Fragmentation Warhead and Laser Proximity Fuze.
ASRAAM dual-thrust (boost/sustain) solid-fueled rocket.
Python-4 Employs 6inch diamater Rocket Motor similar as ASRAAM.
Python-4 has unique Engagement Geometry.
Just look at this pic and u will understand Everything.
http://www.israeli-weapons.com/weapons/missile_systems/air_missiles/python/python4.gif
One article was saying that Python-4 can change Fighter Doctrines of NATO countries.
Conclusionython-4 lacks Lock on after launch capability and Focal plane array seeker which puts ASRAAM is advantage.
Its not clear if Python-4's Advanced ECCM is better than ASRAAM's counter maesures.
But Python-4's Unique Engagement Geometry gives advantage in Combat.
Finally I think that Python-4 is not a good as ASRAAM,But its capabilities are just near to the ASRAAM.
Israeli RAFAEL introduced Python-5,fifith generation AAM which has all the capabilities of ASRAAM and Python-4 and some better Capabilities.
It has 180 degree capability.
I wanted to compare Capabilities of ASRAAM and Python-4.
Aerodynamics:The AIM-132 is a high-speed short-range rocket-powered missile with a low-drag configuration without any forward flying surfaces. The missile is compatible with all available target designation systems like radar, electro-optical sensors and helmet-mounted cueing sights, and its low-smoke solid-propellant rocket motor provides very high acceleration off the launch rail. Using its four cruciform tail surfaces, the ASRAAM can pull up to 50 g immediately after launch
ASRAAM has 90 degree off boresight capability.
The Python 4 is a true fourth generation missile, designed from the ground up for the demanding requirements of this style of air combat. It employs an all aspect gimballed seeker designed for large off boresight acquisition and tracking angles, and a high tracking rate. It also employs a new powerplant, and unique aerodynamics specifically optimised for high agility.
Python-4 has in excess of 60 degree off boresight capability(Exact figures not yet disclosed)
Guidance:
ASRAAM has the new Focal Plane Array IIR (Imaging Infrared) seeker Similar to the one in AIM-9X.
It has Counter measure Resistance and capability of Lock on after Launch.
The main improvement compared to the existing AIM-9L/M Sidewinder, however, is the new Focal Plane Array IIR (Imaging Infrared) seeker, which is similar to the one used in the American AIM-9X. The ASRAAM also has a LOAL (Lock-On After Launch) capability which is a distinct advantage when the missile is carried in an internal weapons bayThis seeker has a long acquisition range, high countermeasures resistance, high off-boresight (+/- 90°) field-of-view, and the capability to designate specific parts of the targeted aircraft (like cockpit, engines, etc.).
Python has multiple detector array Seeker with advanced IR ECCM Capability.Target acquisition and track is achieved by an advanced imaging infra red seeker and state of the art image processing. The Electronics and Power Unit, the brain of the missile, is one of the most powerful computer systems ever used in a missile
It employs DSP(Digital Signal Processing) which will Improve Aquisition range.
Unfortunately Python-4 Does not have the capability of Lock on after Launch Capability and Lacks the Focal Plane Array Infra Red Seeker like in ASRAAM.
Israeli sources will only acknowledge that the missile uses a multiple detector array seeker, which has an IRCCM (ie IR ECCM) capability and the ability to reject background IR radiation. Typical two colour seekers (eg FIM-92C Stinger) use an Argon cooled InSb 4 micron IR detector and a Si or GaAs UV detector. Valid aircraft targets have a low UV signature and a high IR signature and this enables the Stinger to easily reject spurious targets such as flares. The Python 4 seeker has been credited with significantly better acquisition range than that of the AIM-9M, which is consistent with the sensitivity improvement produced by a multiple element seeker.
The Python 4 is known to employ digital signal processing techniques in the seeker, as well as a microprocessor based digital flight control system. The use of DSP (Digital Signal Processing) techniques will provide the seeker with better acquisition range than analogue seekers by exploiting the multiple detector elements to full advantage, as well as providing further IRCCM capability and the ability to intelligently manage fluctuating target signatures. A digital flight control system will allow the missile to optimise its flight control laws for the regime of flight, while also selectively choosing the most suitable homing algorithm parameters for the geometry of the engagement. The Python 4 missile employs a unique tailored proportional navigation homing algorithm.
Can anybody tell me what is this proporitional Navigation Homing Algorithm and what advantage will an AAM have with this.
Warhead and Fuze:
ASRAAM is armed with blast Fragmentation Warhead and Laser Proximity Fuze.
Python has the same Blast Fragmentation Warhead and Laser Proximity Fuze.
Power Plant:The missile employs a blast fragmentation warhead which is triggered by an active laser proximity fuse with a backup impact fuse, a design feature in common in the AIM-9, but different from the Archer which employs a radio proximity fuse. The warhead size has not been disclosed. Its electromagnetic proximity fuse is one of the best in the world.
ASRAAM dual-thrust (boost/sustain) solid-fueled rocket.
Python-4 Employs 6inch diamater Rocket Motor similar as ASRAAM.
Other Capabilities:The Python 4 employs a 6 in diameter rocket motor, a feature it shares with the Archer and the ASRAAM. The long burn motor has a tailored thrust profile to achieve optimal acceleration for close-in closing engagements and high energy for terminal phase homing or end-game engagement. Thrust vectoring is not employed, the missile instead utilises aerodynamic design to achieve a high turn rate throughout the its flight envelope.
Python-4 has unique Engagement Geometry.
The intent of the designers was to produce a missile which can not only be shot from a wider range of angles than earlier missiles, but which can also maintain track on a highly manoeuvrable high G target engaged during the merge or opening phase of an engagement. A passing target on a reciprocal heading can be engaged in most of the forward hemisphere, if the Python fails its first opportunity to hit, it will maintain track on the target and continue a tail chase geometry pursuit on a reciprocal heading to the launch aircraft, running down the target for a tail-aspect hit. The missile is claimed to have sufficient turning performance to defeat high G evasive manoeuvre by any existing fighter aircraft. Existing ACM experience with the missile suggests a typical engagement duration of much less than 30 seconds
Just look at this pic and u will understand Everything.
http://www.israeli-weapons.com/weapons/missile_systems/air_missiles/python/python4.gif
Python-4 has better G capability than anyother Missile.A cruciform fixed canard is mounted on the nose to stabilise high angle of attack airflow over the cruciform canard control surfaces, which are used for pitch and yaw control, a technique used by a number of existing WVR AAMs. Roll control is achieved by a small pair of "paddle" vanes aft of the controls. The missile employs highly swept strakes along the fuselage which are intended to improve airflow characteristics over the tail surfaces. The swept tail surfaces are designed to swivel about the fuselage, this is designed to minimise lift induced rolling moments at high angles of attack in high G turns.
One article was saying that Python-4 can change Fighter Doctrines of NATO countries.
Conclusionython-4 lacks Lock on after launch capability and Focal plane array seeker which puts ASRAAM is advantage.
Its not clear if Python-4's Advanced ECCM is better than ASRAAM's counter maesures.
But Python-4's Unique Engagement Geometry gives advantage in Combat.
Finally I think that Python-4 is not a good as ASRAAM,But its capabilities are just near to the ASRAAM.
Israeli RAFAEL introduced Python-5,fifith generation AAM which has all the capabilities of ASRAAM and Python-4 and some better Capabilities.
It has 180 degree capability.
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