1 April 2020, 13:30:42 *

Login with username, password and session length
Welcome to War and Tactics!    War and Tactics Forum is currently undergoing some modifications that might disable features you are used to. This is unabvoidable as we have to update the forum engine to a new structure that is incompatible with many of the features we had used so far. The good news: WaT will be more secure and stable, and most of the features we uninstalled will be a natural part of the new structure anyway. For the rest we will be looking for solutions. (APR 23, 2018)
  Home   Forum   Help ! Forum Rules ! Search Calendar Donations Login Register Chat  
Pages: [1]   Go Down
Share this topic on Del.icio.usShare this topic on DiggShare this topic on FacebookShare this topic on GoogleShare this topic on MySpaceShare this topic on RedditShare this topic on StumbleUponShare this topic on TechnoratiShare this topic on TwitterShare this topic on Yahoo
Author Topic: Starstreak  (Read 5795 times)


Offline Offline


Location: Belgium
Posts: 4247

View Profile
« on: 3 March 2009, 17:23:32 »


latest news from Thales
The Minister of State for Defence Equipment & Support (Min DE&S), Quentin Davies MP, has today announced that Thales UK has been awarded a contract worth more than £200m from the UK Ministry of Defence (MoD) to deliver the Air Defence Availability Project (ADAPT) in support of the Starstreak high velocity missile (HVM) system.
is a British short range surface-to-air missile manufactured by Thales Air Defence Limited (formerly Shorts Missile Systems), in Belfast. It is also known as Starstreak HVM where HVM stands for "High Velocity Missile".
After launch the missile accelerates to approximately Mach 3.5, at which point it launches three laser beam riding submunitions. The use of three submunitions increases the likelihood of a successful hit on the target. Starstreak has been in service with the British Army since 1997.
In mid 2007 Thales UK in Northern Ireland revealed that it had developed Starstreak II, a much improved successor to the Starstreak missile. Some of the advantages included in this new missile are an improved range of 7 kilometres, an improved targeting system and the ability to operate it at much higher altitudes.


The Starstreak missile is transported in a sealed launch tube. This tube is attached to an aiming unit for firing. The operator tracks the target using the aiming unit's optically stabilized sight. The process of tracking the target allows the aiming unit to compute the right trajectory to bring the missile together with the target. The operator can indicate wind direction to the unit, and in the case of a long range target provide super elevation. When the initial tracking is complete, the operator fires the missile by pressing a button.

The missile then fires the first stage rocket motor, which launches the missile from the tube—but burns out before leaving the tube to protect the operator. When the missile is a safe distance from the operator the second stage fires, which rapidly accelerates the missile to burn out velocity of about Mach 3.5 four hundred meters away from the operator. As the second stage burns out the three dart sub-munitions are released. The darts are each 396 millimetres (15.6 in) long with a diameter of 22 millimetres (0.87 in) and weight about 900 grams (32 oz). Each dart consists of a rotating fore-body with two canard fins attached to a non-rotating rear assembly which has four fins. The rear assembly also houses the electronics that guide the missile. The dart housing is made from a tungsten alloy, and contains approximately 450 g (16 oz) of explosive with a delayed impact activated fuze.

The missiles are guided by two laser beams projected into a two dimensional matrix by the aiming unit. The laser is modulated according to its position in the projected matrix, this modulation is detected by each sub-munition and allows it to determine any steering correction. The sub-munitions steer by briefly decelerating the rotating fore-body with a clutch. The front wings then steer the missile in the appropriate direction. The three sub-munitions fly in a formation about 1.5 meters in radius, and have enough kinetic energy to maneuver to meet a target evading at 9G at 7,000 meters.

On impact with the target a delayed action fuze is triggered. This gives time for the projectile to penetrate the target before the explosive warhead detonates. The tungsten housing is designed to fragment and produce maximum damage inside the target.

A demonstration was conducted in September 1999 that showed the missile being used against an FV432 armoured personnel carrier, showing the missile's effectiveness as ground-to-ground weapon. Each sub-munition dart travelling at 1,250 meters per second (2,800 mph) has comparable kinetic energy to a shell from a Bofors 40 mm gun and probably has sufficient energy to penetrate the front armour of an infantry fighting vehicle. However it lacks the armour penetration capabilities of a purpose-built anti-tank guided missile or a dual purpose missile such as Air Defense Anti-Tank System.


The Starstreak has never been used in combat, so its operational effectiveness is unknown. It has a number of advantages over infrared guided, radar guided, and radio command MCLOS/SACLOS (Blowpipe or Javelin), missiles:

    * It cannot be jammed by simple flares (infrared countermeasures) or radar/radio countermeasures.
    * It cannot be suppressed with anti-radar missiles.
    * Its high speed makes it more likely to be able to intercept a fast moving aircraft.
    * Three submunitions increase the size of the lethal area, increasing the probability that the target will be hit by at least one submunition. This is partially reduced by the missile's attack pattern (see disadvantages).
    * Its high speed reduces the amount of time for effective usage of any potential countermeasure, such as the beam maneuver or illuminating the guidance laser source with an eyesight damaging battlefield laser.
    * It is much quicker reacting than infrared guided MANPADS, with no seeker cooling down period required.
    * The guidance laser has a low energy level, making detection more difficult for a laser warning receiver system.

However there are some disadvantages:

    * The major disadvantage is that submunitions having no proximity fuze need to strike the target to do damage, a near miss would do no damage to the target.
    * The guidance laser may be detected after the missile is fired, if the target aircraft is equipped with a suitable laser warning system, unlike entirely passively guided Infrared homing systems. Infrared launch signature detecting MAWS tend to be subject to a high false alarm rate, and the radar based MAWS radiate an easily detectable signal, giving away the presence of the aircraft.
    * The operator can be blinded by battlefield lasers or other countermeasures.
    * Battlefield obscurants such as smoke can degrade the ability of the missile operator to see the target, and can also interfere with the guidance laser.
    * The training level of the operator is critical since, unlike infrared guided missiles, the operator has to track the target exactly with the sighting unit aimpoint (SACLOS).

Pages: [1]   Go Up
Jump to:  

Unique Hits: 28430211 | Sitemap
Powered by MySQL Powered by PHP Powered by SMF 1.1.16 | SMF © 2011, Simple Machines
TinyPortal v0.9.8 © Bloc
Valid XHTML 1.0! Valid CSS!

Google visited last this page 5 January 2020, 20:06:44