About: ASRAAM   Sponge Permalink

An Entity of Type : dbkwik:resource/t9ln_EbmcSHrBZziiWPG4g==, within Data Space : 134.155.108.49:8890 associated with source dataset(s)

In the 1980s, NATO countries signed a Memorandum of Agreement that the United States would develop a medium-range air-to-air missile to replace the AIM-7 Sparrow, while Britain and Germany would develop a short-range air-to-air missile to replace the AIM-9 Sidewinder. The US design developed as the AIM-120 AMRAAM, while the UK-German design started as the AIM-132 ASRAAM.[citation needed] In March 2009 the Royal Australian Air Force successfully carried out the first in-service 'Lock on After Launch' firing of an ASRAAM at a target located behind the wing-line of the ‘shooter’ aircraft.

AttributesValues
rdf:type
rdfs:label
  • ASRAAM
rdfs:comment
  • In the 1980s, NATO countries signed a Memorandum of Agreement that the United States would develop a medium-range air-to-air missile to replace the AIM-7 Sparrow, while Britain and Germany would develop a short-range air-to-air missile to replace the AIM-9 Sidewinder. The US design developed as the AIM-120 AMRAAM, while the UK-German design started as the AIM-132 ASRAAM.[citation needed] In March 2009 the Royal Australian Air Force successfully carried out the first in-service 'Lock on After Launch' firing of an ASRAAM at a target located behind the wing-line of the ‘shooter’ aircraft.
sameAs
Length
  • 2.90 m
dcterms:subject
dbkwik:military/pr...iPageUsesTemplate
vehicle range
  • 18000.0
detonation
  • laser proximity fuze and impact
diameter
  • 166.0
Speed
  • Mach 3+
filling
  • 10(xsd:integer)
Guidance
  • Imaging infra-red, 128×128 element focal plane array, with lock-on after launch and strapdown inertial
Service
  • 1998(xsd:integer)
Name
  • Advanced Short Range Air-to-Air Missile
Type
  • Short-range air-to-air missile
Caption
  • Two ASRAAM on a RAF Typhoon in 2007
is missile
  • yes
Unit Cost
  • >£200,000
Weight
  • 88.0
Wingspan
  • 450.0
Manufacturer
launch platform
  • Aircraft: *Royal Air Force: Tornado, Typhoon *Royal Australian Air Force: F/A-18
Used by
  • See Operators
Engine
  • solid rocket motor
altitude
  • N/A
abstract
  • In the 1980s, NATO countries signed a Memorandum of Agreement that the United States would develop a medium-range air-to-air missile to replace the AIM-7 Sparrow, while Britain and Germany would develop a short-range air-to-air missile to replace the AIM-9 Sidewinder. The US design developed as the AIM-120 AMRAAM, while the UK-German design started as the AIM-132 ASRAAM.[citation needed] The starting point for the UK portion of the ASRAAM design was an experimental short-range missile designed by Hawker Siddeley in the 1970s, SRAAM/Taildog. The SRAAM contract was cancelled in 1974, but retained as a technology demonstration program. The German contribution to ASRAAM was a new advanced seeker.[citation needed] Unlike SRAAM, outright maneuverability was no longer the main concern. The new AIM-120 had a fairly long range and could be expected to be fired against targets around 20 miles away, while SRAAM and Sidewinder were much shorter-range weapons with useful ranges of only a few miles.[citation needed] There was a fairly large range gap between the two designs that the UK-German team felt was the most important problem to solve. Although portions of the original SRAAM design were used, the airframe was extensively redesigned to produce a missile with greater speed and range, closing the distance gap as well as making it difficult to avoid simply because it was so fast.[citation needed] The new ASRAAM did not use the thrust vectoring system of SRAAM but body lift technology and small fins at the extreme rear of the missile to give directional control and reducing aerodynamic drag.[citation needed] While ASRAAM was being developed, reunification of Germany gave the German Air Force their first look at the Russian Vympel R-73 missile, known in the west as the AA-11 Archer. This proved to be a far more dangerous short-range attack weapon than had been known previously. It was clearly able to outperform all operational Western short-range IR tracking missiles - particularly in the ability to guide in high off-axis attacks, but also in terms of field of view, acquisition range, maneuverability, ease of target designation, and target lock-on.[citation needed] Concluding that they needed a missile with better performance than the Archer, the UK-German partnership broke down in the early 1990s, with the German Air Force deciding in 1995 to procure its own new air-to-air missile, the IRIS-T built by Diehl BGT Defence. Due to the numerous developmental delays caused by the UK-German disagreement over ASRAAM design with no solution in sight, and in light of threat of Archer, the US could not wait any longer and began development of their own improved version of the Sidewinder, the AIM-9X in 1990.[citation needed] With the German exit from the ASRAAM project, the UK sought a new source for the ASRAAM seeker and selected a Hughes focal plane array imaging infrared seeker. Somewhat ironically, Hughes used the same technology in their winning submission for AIM-9X, so the ASRAAM and the AIM-9X both use the same Hughes seeker. Raytheon also proposed a seeker for ASRAAM and submitted an AIM-9X proposal, but was not selected. However, Raytheon ultimately purchased Hughes and is now the producer of seekers for both ASRAAM and AIM-9X.[citation needed] In January 1995 British Aerospace Dynamics arranged for financing from the British Government to enter the ASRAAM in the AIM-9X contest. The testing concluded in June 1996, with the result that the ASRAAM did not meet the US requirements and the project was dropped from US contention.[citation needed] UK development and manufacture went ahead and the first ASRAAM was delivered to the RAF in late 1998. It equips the RAF's Tornado GR4 and Typhoon. It was also used by the RAF's Harrier GR7 force until its retirement. In February 1998 the British-French Matra British Aerospace consortium won a contract to supply ASRAAM to the Royal Australian Air Force for use on their F/A-18 Hornets following competitive evaluation of the improved ASRAAM, the Rafael Python 4 and the AIM-9X. In March 2009 the Royal Australian Air Force successfully carried out the first in-service 'Lock on After Launch' firing of an ASRAAM at a target located behind the wing-line of the ‘shooter’ aircraft.
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