Rapier (missile)

Rapier Surface-to-Air Missile System

Company type	Military weapon system
Industry	Defense
Founded	1971
Headquarters	United Kingdom
Products	Surface-to-air missile system

Rapier Surface-to-Air Missile System

Rapier is a surface-to-air missile created to serve the British Army by replacing their towed Bofors 40/L70 anti-aircraft guns. This system is distinctive due to its manual optical guidance mechanism, which transmits control commands to the missile during flight via a radio link. This approach provides exceptional precision, allowing for a relatively small warhead.

Introduced into service in 1971, Rapier ultimately supplanted all other British Army anti-aircraft armaments, including the Bofors guns designed for low-level targets and the Thunderbird missile intended for engagements at greater distances and altitudes. As aerial threats evolved from medium-altitude strategic operations to low-altitude attacks, Rapier's rapid response and agility proved superior, leading to its predominance by 1977.

The RAF Regiment later adopted Rapier to replace their Bofors guns and Tigercat missiles. Additionally, the system was exported internationally. By October 2021, it was succeeded as one of the United Kingdom’s main air-defence assets by the Sky Sabre system.

History

Green missile launch vehicle in a field, surrounded by temporary fencing, with houses in the background

A Rapier FSC Ground Based Air Defence (GBAD) system positioned at Blackheath, London on 2 May 2012

Early Developments

The deployment of medium-range surface-to-air missiles, referred to in the UK as surface-to-air guided weapons (SAGW), rendered flying at medium or high altitudes close to the frontline extremely hazardous. To counter this threat, air forces started deploying aircraft and armaments designed for low-altitude operations, employing nap-of-the-earth flight techniques that utilized terrain features to shield the aircraft from missile radar detection.

By the end of the 1950s, the British Army recognized this threat as significant due to the increasing prevalence of aircraft such as the Sukhoi Su-7 and the development of more advanced models. For engaging low-flying aircraft, only anti-aircraft guns were effective because they could be rapidly aimed and fired within seconds. However, their relatively limited range—such as that of the Bofors 40/L56—meant that the window for firing upon targets was brief.

To address these limitations, the Army initiated development of a substantially enhanced weapon system named "Red Queen". This design featured a large-caliber 42 mm (1.7 in) rotary cannon capable of delivering a high rate of fire. Despite progress made, by 1959 the General Staff determined that traditional guns were becoming obsolete against modern aircraft. As an interim measure, they procured the updated Bofors 40/L70, while simultaneously launching a new missile project aimed at producing a short-range, rapid-response weapon system known as Light Anti-Aircraft (LAA).

PT.428

In 1960, British Aircraft Corporation (BAC) won the initial competition for the LAA system with their design designated PT.428. This system was intended to be transportable on a single 4-ton Bedford TK truck. The firing assembly was a unified unit typically deployed on the ground during operations but capable of being fired directly from the vehicle in emergency situations. The design also prioritized modularity to allow disassembly into a single load compatible with transport by the Fairey Rotodyne. Technologically advanced for its time, PT.428 incorporated automated search and tracking radars, an independent television camera for target identification, and carried eighteen missiles arranged in two nine-round containers.

As financial constraints intensified in the early 1960s, the Army faced a choice between funding PT.428 or their Blue Water nuclear missile program. The decision favored Blue Water—a move later criticized by Solly Zuckerman. Consequently, PT.428 was officially replaced by the similar yet somewhat less sophisticated American MIM-46 Mauler. Mauler combined search radar capabilities with nine missiles employing either radar or infrared guidance mounted on a vehicle derived from the M113. While conceptually akin to PT.428, Mauler featured a larger platform but carried fewer missiles.

Sightline

While working on PT.428, BAC also explored a lighter variant of the system that featured six PT.428 missiles mounted on a trailer towed by a pickup version of the Land Rover. An early warning radar was planned to be installed on a framework above the truck’s roof, with initial target tracking performed manually through a pair of binoculars attached to a gimbal in the truck bed. A small antenna on the launcher trailer would link with the missile to align it with the binoculars, after which guidance would switch to semi-active radar homing (SARH).

Following the cancellation of PT.428 in 1961, BAC shifted focus toward more cost-effective solutions based on similar principles. During this period, Colin Baron and John Twinn at the Royal Aircraft Establishment developed an optical semi-automatic command to line of sight (SACLOS) guidance system. Integrating this with the PT.428 missile gave rise to the Sightline concept, which promised significantly lower costs compared to the original radar-guided design.

In 1962, as Mauler was being scaled back en route to cancellation, both the US and British Armies found themselves without modern short-range air defense weapons. The General Staff and Air Staff responded by issuing the combined GASR.3132 requirement for a daytime, clear-weather SAM suitable for both Army and RAF Regiment use. It remains unclear from available sources whether GASR.3132 was intended specifically for Sightline or vice versa. This new initiative was named "Defoe". Additionally, under GASR.3134, a smaller and more affordable system without early warning radar was also considered.

Rapier

By 1963, Defoe had become an official project with development target ET.316. Initially dubbed "Mongoose" by BAC management, the name was changed after a board meeting highlighted uncertainty over the plural form of mongoose (mongooses or mongeese). The alternative name "Rapier" was proposed and subsequently adopted.

As development progressed, it became evident that Rapier was far more capable than originally anticipated. Its optical tracking system demonstrated such precision that despite having a relatively small warhead and lacking a proximity fuze, it almost guaranteed destroying its target aircraft. BAC humorously referred to it as a "hit-ile" rather than a "miss-ile". The importance of incorporating an early warning radar became clear in operational scenarios, leading to the abandonment of GASR.3134’s radar-less concept.

Missile test firings commenced in 1966. Extensive trials were conducted at Woomera, with significant support from the Australian Army, one of Rapier’s early adopters.

In 1965, Australian personnel at Woomera started developing a simulator designed to analyze and optimize the manual guidance system. This involved using a joystick from the Rapier optical tracker to manipulate a projected missile image. Models of both missiles and various target aircraft were created and filmed via stop motion techniques, producing sequences simulating different attack scenarios over Woomera skies. The simulator was completed by 1968. Initial evaluations revealed tracking difficulties that raised concerns within the British Army about whether average operators could effectively manage the system. Some challenges were addressed by refining joystick feedback mechanisms to better reflect missile response characteristics. Remaining issues were largely resolved through extensive simulation runs and data analysis using an IBM 7090. Complete systems underwent testing in 1968, leading to a production contract awarded in 1969.

Simultaneously, the RAF Regiment pursued a short-range air defense weapon tailored for airfield protection. This effort culminated in the development of the Tigercat system in 1967, adapted from the naval Seacat surface-to-air missile platform. While Tigercat shared conceptual similarities with Rapier, it relied on older technologies resulting in greater size and weight but reduced range and slower speed. Tigercat entered service with No 48 Squadron RAF Regiment in 1968, providing Britain’s first fully air-portable low-level SAM system along with valuable operational experience for the RAF Regiment. In 1972, a joint trials unit named Rapier Pilot Battery was formed by No 63 Squadron RAF Regiment and 9 (Plassey) Light Air Defence Battery Royal Artillery. After comprehensive testing concluded in 1973, No. 63 Squadron became the first British unit equipped with Rapier when deployed to Germany in mid-1974.

During the 1980s, a new training simulator was developed in Stevenage. This system featured a hemispherical dome approximately 10-metre (33 ft) in radius whose interior served as a projection surface for terrain imagery. A copper vapor laser projected images of targets and missiles in flight superimposed on this background, while a smaller helium-neon laser simulated Rapier’s tracking flare. A complete targeting unit was positioned at the dome’s center; its guidance signals were captured and fed into the simulator to update missile positions dynamically. The brightness of these laser projections allowed them to be detected by IR imagers and seekers, enabling compatibility with upgraded Darkfire versions of Rapier equipped with IR cameras or other IR-guided missiles like the Stinger. This technology was marketed separately under the name British Aerospace Microdome for use with various missile systems.

Variants

File:Towed Rapier SAM.jpg

A Republic of Singapore Air Force Rapier SAM system

The initial Rapier configuration featured a two-wheeled launcher equipped with four missiles, an optical tracking unit, a generator, and a trailer carrying additional missiles. The launcher itself is composed of a vertical cylindrical structure holding two missiles on each flank, with the surveillance radar antenna and the "Identification Friend or Foe" (IFF) system enclosed beneath a radome at its apex. The guidance computer and radar electronics reside at the base, while a distinct parabolic antenna positioned at the front transmits guidance signals to the missiles.

The pulsed Doppler search radar has an approximate detection range of 15 kilometres (9 mi). Mounted atop the launcher, the radar antenna completes roughly one rotation per second, scanning for moving targets by detecting their Doppler shift. When a target is identified, an indicator illuminates on the Selector Engagement Zone (SEZ)—a circular panel about the diameter of a car steering wheel, containing 32 orange lamps arranged around its perimeter. The radar operator can selectively suppress signals from other directions using switches, enhancing resistance to jamming.

The optical tracker unit includes a fixed lower section housing operator controls and a rotating upper section with tracking optics. The operator’s viewing system incorporates a modified telescope containing a Dove prism, which stabilizes the image to prevent inversion as the optics rotate horizontally. This design allows the operator to maintain target tracking without physically moving, unlike with a periscope. Additionally, the upper section features an independent missile tracking subsystem based on an infrared-optimized television camera that follows the operator’s line of sight.

Once a target is detected, the optical tracker is directed to the azimuth indicated by the SEZ; the operator then locates the target in elevation. Depending on target distance, the operator selects either a "wide" field of view (~20 degrees) or a "track" mode (~4.8 degrees). After acquiring the target, switching to "track" enables the operator to use a joystick to keep it centered within the telescope’s crosshairs. When stable tracking is achieved, missile launch occurs. The tracker’s TV camera monitors four flares on the missile’s tail, switching between an initial capture view of approximately 11 degrees and a narrower 0.55-degree view for mid-course guidance.

Missile position relative to the line of sight is measured using a mechanism similar to the "chopper" system found in early infrared homing missiles; however, this chopper is housed within the launcher rather than on the missile itself. It processes images from the tracking camera that include light emitted by the missile flares. The chopper produces signals encoding both vertical angle ("up") and lateral deviation ("error off") from centerline. A basic computer located in the launcher calculates corrective control inputs to realign the missile with the line of sight and transmits these commands via radio to receiver antennas mounted on small fins near the missile’s rear midsection. The operator maintains aim by keeping crosshairs on target using the joystick, while guidance corrections automatically steer the missile into alignment. This concept resembles guidance methods used by most anti-tank missiles but differs in using radio transmission instead of wire links.

The missile carries a 1.4-kilogram (3.1 lb) warhead triggered by a contact fuze, propelled by a single-stage solid-fuel rocket motor accelerating it to roughly 650 metres per second (2,100 ft/s), or about Mach 2. Time from launch to maximum effective range impact is approximately 13 seconds. The interval between initial target detection and missile firing averages six seconds, consistently demonstrated during live exercises.

Deployment of both system and crew relies on two Land Rover vehicles: one called the Fire Unit Truck (FUT) and another termed the Detachment Support Vehicle (DSV). Royal Artillery batteries were organized into three troops each containing four fire units; RAF Regiment squadrons operated eight fire units apiece. By 1980, each Royal Artillery fire unit comprised a 24-volt 101 FC 1 tonne Land Rover towing the Rapier Launcher with four missiles onboard, alongside a 2.8 m (109 in), 3/4 ton, 24 V FFR (Fitted For Radio) Land Rover towing a 1-ton Missile Supply Trailer (MST) carrying up to ten additional missiles. Blindfire radar capability (discussed below) was fitted on only one-third of British Army fire units but was standard equipment across all RAF Regiment fire units.

Blindfire Radar, FSA

File:Rapier FSC-radar.JPEG

Blindfire radar unit

While the original Rapier system was both precise and user-friendly, it lacked the capability to operate effectively in all weather conditions. To overcome this limitation and boost international sales, BAC initiated development of a dedicated radar guidance component. This effort resulted in the launch of the Marconi DN 181 "Blindfire" radar in 1970, with initial units delivered to the Iranian Army by 1973.

The British Army did not adopt the Blindfire system until 1979, integrating it into Rapier "Field Standard A" (FSA). By that year, the RAF Regiment's 27 Squadron had deployed Blindfire at RAF Leuchars and was in the process of standardizing its Ground Based Air Defence (GBAD) Squadrons with this technology. Production numbers exceeded 350 units by 1997.

Blindfire achieves precision by employing a highly focused "pencil" beam that simultaneously tracks both the target and the missile. The existing optical tracker is programmed to follow the Blindfire radar during target engagement, although operators retain the ability to manually direct the optical tracker toward a secondary target while Blindfire handles the primary one. The Blindfire radar system is mounted on a trailer equipped with its own generator and is towed by a third Land Rover—a 12 V winch-fitted 101 FC—designated as the Tracking Radar Tractor (TRT).

Tracked Rapier

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Tracked Rapier at Royal Air Force Museum Midlands

Following orders from Iran, BAC was tasked with creating a fully mobile Rapier variant to safeguard Chieftain tanks supplied under a UK MOD contract. This led to adapting Rapier for mounting on the M548, a cargo carrier variant of the widely used M113. Development of this "Tracked Rapier" began in 1974, with its first public appearance as a static exhibit at the 1977 Paris Air Show.

File:Tracked Rapier, Tankfest 2009.jpg

Tracked Rapier (rear view)

The initial concept involved mounting the towed launcher—complete with its petrol generator but without its wheels—onto the flatbed of an M548 carrier. However, when presented to Mr. G.R. Jefferson, Managing Director of GW, he demanded more comprehensive modifications given budget considerations. Under Greville Beale and Adrian Pollicutt’s leadership, a substantially redesigned configuration was developed rapidly.

This redesign included significant armor enhancements for the M548 platform, now renamed RCM 748, and integration of a diesel-powered Coventry Climax H 30 engine to power both the new generator and serve as an auxiliary power unit. Most electronic components from the towed launcher remained largely unchanged. Nevertheless, a newly engineered armored launcher capable of holding eight missiles was mounted on anti-vibration supports atop the vehicle’s flatbed. The armored cab featured pan-climatic heating/cooling systems alongside NBC protection.

The optical tracker was housed inside the armored cabin and could elevate through an opening in the roof when in use. Operating from the crew compartment’s right side, the tracker was controlled separately from the driver and tactical controller seated on the left; notably, the controller had access to a helmet-mounted sight for visually acquiring targets.

Transitioning from movement to firing readiness took just 30 seconds—a remarkable improvement over Towed Rapier’s minimum 15-minute setup involving unlimbering, cabling, and alignment. Additionally, Tracked Rapier boasted eight protected missile rails compared to four on its towed counterpart, increasing firepower and reducing resupply frequency. The system was also designed for air portability, enabling immediate deployment upon arrival aboard C-130 aircraft.

Due to space constraints on a single RCM748 vehicle, Blindfire radar units could not be integrated directly; instead, they were either towed or transported on another modified M548/RCM748 vehicle. Establishing data links between these components required additional setup time.

Development was incomplete when Iran’s Shah was deposed in 1978; subsequently, these vehicles were acquired by the British Army under a Fixed-price Develop and Supply agreement. The first production Tracked Rapier unit was delivered on schedule and within budget at Wellington Barracks in early 1981. It entered active service in 1983 with 11 (Sphinx) Air Defence Battery of 22 Air Defence Regiment, Royal Artillery, stationed at Napier Barracks near Dortmund.

Initially fielded at Towed FSB1 standard featuring planar array radar and 'Pointing Stick' controls, Tracked Rapiers underwent upgrades culminating in thermal-imaging enhanced trackers that enabled autonomous single-vehicle operation around-the-clock without reliance on Blindfire.

A modified M548 served as a Missile Resupply Vehicle carrying spare missiles, relief personnel, additional field equipment, rations, and water supplies. Another M548 variant functioned as a REME Forward Area Support vehicle equipped with test gear and spare parts.

During the Gulf War, batteries from 12 and 16 Regiment Royal Artillery were rapidly outfitted with satellite navigation systems for desert operations and combined their efforts to provide Tracked Rapier coverage for deployed armored units.

Retirement of Tracked Rapier occurred in the early 1990s due to manpower challenges coinciding with introduction of Towed FSC models. It has since been succeeded by Starstreak missile launchers mounted on Alvis Stormer vehicles.

FSB

Soon after the launch of the FSA upgrade, "Field Standard B" (FSB) brought several fundamental enhancements. Among these was an improved search radar designed to be easily deactivated in the event of an anti-radiation missile threat. FSB also integrated insights gained from the Falklands conflict, notably introducing a 'pointing stick' that allowed the fire unit’s detachment commander to direct the aiming device toward a target more effectively.

Laserfire

The extensive modifications and new components meant the original budget-friendly Rapier system was effectively replaced. To meet global demand for a more affordable solution, BAC initiated development of the "Rapier Laserfire" in 1982. This variant substituted the initial optical tracker with a compact lidar (laser radar) illumination system, enabling the entire setup to be installed on a single pallet suitable for mounting on trucks or other flatbed platforms.

Laserfire incorporated a millimetric Doppler radar operating at very high frequencies. Its ability to adjust its beam shape—from narrow azimuth with high elevation to wide azimuth with low elevation—enabled detection of low-flying or hovering helicopters amid cluttered environments by sensing rotor blade movements.

The engagement process remained similar to the original Rapier, but targets were illuminated and tracked automatically using a powerful YAG:Nd laser. After missile launch, the laser alternated between illuminating the target and the missile itself to determine their positions, facilitating guidance commands sent to the missile (see laser guidance). This upgrade marked a significant advancement over the original optical system by enabling semi-automatic targeting and substantially lowering operator training requirements.

However, Laserfire lost the original optical system’s capability of visually identifying aircraft at long distances. Furthermore, while Laserfire’s tracking could operate during nighttime, initial target acquisition still relied on optical means, as with the original Rapier.

Darkfire

Development began in 1985 on a new tracker that replaced the initial optical system with an IR thermal imaging device to enhance performance, particularly during night operations. Known as "Rapier Darkfire," this version underwent trials starting in 1987 and entered service in 1990 under the designation "Field Standard B2" (FSB2), with previous upgrades retrospectively labeled FSB1. It was also referred to as "Rapier 90." The thermal imager was cooled using compressed gas cylinders.

FSB2 introduced several key improvements that significantly boosted Rapier's operational capabilities. Chief among these was the Tactical Control Console, which enabled centralized command over four Rapier launchers. The launchers themselves were upgraded to carry six missiles instead of four, thereby enhancing battery firepower. Additionally, the search radar was modernized with a new planar array radar, although its overall performance remained similar to earlier versions.

Missile enhancements

Testing of an upgraded warhead featuring a proximity fuze began in 1988 to enable Rapier to engage smaller, hard-to-hit targets, such as fast remotely piloted vehicles. Production of the Mk. 1E variant commenced in 1989.

In 1992, a contract was awarded to modernize all Rapier systems to an advanced standard. Development of the Mark 2 missile started in 1986, resulting in a comprehensive redesign that entered operational service by the mid-1990s. This upgraded missile incorporated cutting-edge technologies of the time, alongside improvements to the proximity fuze, including:

A Von Karman supersonic aerodynamic design; a composite propellant with a two-stage shaped burn and laminated solid rocket motor body; ceramic substrate surface-mounted PCBs; entirely new electronics and software; both analogue and digital proprietary ASICs; a highly ECM-resistant front end and command link featuring redundant encoding; a fully digital autopilot utilizing Kalman state filtering; inertial navigation with ring-laser roll and rate gyroscopes; and Kapton ribbon cabling.

Two warhead versions are offered: the Mk. 2A designed for standard anti-aircraft operations, and the Mk. 2B which incorporates a shaped charge warhead with dual fuzes, making it effective against lightly armored targets as well.

Rapier 2000

File:Rapier-Jernas.jpg

Jernas launcher unit displaying an optical tracker mounted on top, integrated power generator, and significantly reduced overall height.

Following the introduction of Rapier 90, another significant upgrade initiative was launched at MBDA (formerly Matra BAe Dynamics) in 1992. Known as "Rapier 2000" or "Field Standard C" (FSC) within British forces, this represented the system’s ultimate evolution. FSC development began in 1983 and entered service in 1996. By then, post-Cold War reductions had led to smaller air defence contingents equipped with fewer batteries, though each fire unit retained Blindfire capability. An export version called Jernas was also developed, with Malaysia being its initial international customer.

Although FSC was essentially a new platform, it retained a largely unchanged Blindfire system and could deploy both Mk 1 and Mk 2 missiles. The surveillance radar was separated from the launcher and operated independently, while each launcher was upgraded to carry eight missiles.

With missile guidance increasingly dependent on radar since Blindfire’s introduction, upgrading the original search radar was logical. This role was filled by the Alenia Marconi "Dagger," a modern 3D pulse doppler radar integrated with a Cossor IFF Mark 10 system. Dagger is trailer-mounted, eliminating the need for the radome atop the launcher. In its place, a sophisticated optical tracking unit was added, featuring a Stirling-cycle cooling system instead of compressed gas cylinders. The miniaturization of electronic components significantly lowered the launcher’s profile and allowed two additional missiles to be carried, totaling eight.

Operationally, Rapier 2000 functions similarly to earlier Blindfire-equipped variants. Targets are detected visually or via Dagger radar before being tracked by both Blindfire and the optical tracker. The optical system can either track the missile alone or provide full guidance as in the original Rapier design. Engagements are fully automated without requiring operator input. Additionally, the optical tracker can perform search functions by detecting IR sources, enabling stealthy radar-free operation.

A 2006 Ministry of Defence review on Ground Based Air Defence recommended further downsizing due to diminished air threats and enhanced protection provided by Typhoon fighters. This included transferring responsibilities away from the RAF Regiment to preserve Royal Artillery units amid significant Army cuts. Nonetheless, Royal Artillery units were placed under HQ 1 Group RAF within HQ Air Command, and the Joint Ground Based Air Defence Headquarters was established.

Combat record

Photograph of a missile in the process of launching in the night.

During a live firing exercise at Benbecula, Scotland, a Rapier missile rapidly approaches its target, operated by 20 Commando Battery Royal Artillery.

The earliest documented combat deployment of the Rapier system occurred in December 1974 amid the Second Iraqi–Kurdish War, where it successfully downed an Ilyushin Il-76MD aircraft of the Iraqi Air Force.Template:Fix/category Although the missile was part of the Iranian army's arsenal, it was positioned within Iraq to defend Kurdish military command centers. The launch was conducted by a British team, reportedly contracted either by the Iranian authorities or possibly by the missile’s manufacturer, BAC.Template:Fix/category

Following the fall of the Shah in 1978, informal discussions with senior Iranian army officials revealed that they had maintained operation of the initial 30 launchers supplied before the Shah's overthrow. They claimed to have intercepted and destroyed a considerable number of enemy aircraft, exceeding those engaged during the Falklands conflict.

In April 1982, the original Rapier system saw deployment during the Falklands War. T Battery from the 12th Regiment Royal Artillery joined forces with 3 Commando Brigade as part of the Falklands Task Force. The battery landed at San Carlos on 21 May, assigned to provide air defence coverage for a Harrier landing and refuelling site established near Port San Carlos. Its counterpart, 9 (Plassey) Battery, arrived only after hostilities had ended.

The first unit equipped with Rapier, 63 Squadron RAF Regiment, deployed to San Carlos Bay on 1 June and was subsequently relocated around Stanley.

Several issues hindered the Rapier system’s operational efficiency, which limited its confirmed kill count despite potentially serving as a deterrent. From an engineering perspective, the fragility of the launchers was already recognized before combat began. This vulnerability was exacerbated by losing spare missiles when the MV Atlantic Conveyor sank. The malfunctioning of Fire Unit 32 Alpha at Fitzroy contributed among other factors to the successful bombing of RFA Sir Galahad.

After the conflict, reports credited T Battery with 14 confirmed kills and an additional four to six probable kills.

However, only one aircraft—a Dagger A from FAA Grupo 6 shot down on 29 May—can be conclusively confirmed as destroyed by a Rapier missile. Three other aircraft—a A-4B Skyhawk from FAA Grupo 5 on 23 May and two A-4C Skyhawks from FAA Grupo 4 on 24 and 25 May—were targeted by multiple San Carlos air defence systems. Attribution for these kills varies among the Sea Wolf, Sea Cat, Blowpipe, small arms fire, and T Battery itself.

Comparable inconsistencies appeared with other weapon systems such as the Blowpipe missile, which recorded one confirmed kill against nine claims, and the Sea Cat missile, with zero to one confirmed kills despite eight claims and two probables. The Ministry of Defence was later found to have overstated Rapier’s combat performance, likely unintentionally. This finding was politically sensitive due to concerns that acknowledging Rapier’s shortcomings could negatively impact sales for British Aerospace’s Dynamic Group, for whom Rapier represented a significant source of revenue.

Key limitations included restricted range and the omission of a proximity fuze, necessitating direct hits on targets for successful engagement. Additionally, Rapier faced challenges with its IFF system and experienced interference issues with Royal Navy radar systems.

During the 2012 Summer Olympics, Rapier missiles were deployed to provide air-defence security for the event. Systems were installed at four locations: (Blackheath Common; William Girling Reservoir in Enfield; Oxleas Meadow near Shooter's Hill; and Barn Hill in Epping Forest), complemented by Starstreak missile units at two additional sites.

Operators

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Swiss soldiers setting up the Rapier missile system in 1986.

Current operators

Template:IRN

Islamic Republic of Iran Army

Template:KEN

Kenyan Air Force

Template:MAS

Malaysian Army – procured three batteries in April 2002

• 3 radars
• 3 dagger units
• 15 launchers
• 150 Rapier-2 missiles

Template:OMN

Royal Air Force of Oman – introduced Rapier systems into service in 1976

• 28 launchers acquired in 1974
• 600 Rapier-1 missiles acquired in 1974
• 12 Blindfire radars obtained in 1980
• 800 Rapier-2 missiles

 Switzerland

Swiss Air Force – procurement took place in 1980

• 60 Blindfire radars
• 60 launchers
• 1,200 Rapier-1 missiles
• 2,000 Rapier-2 missiles

Template:TUR

Turkish Air Force – operates 86 launchers, upgraded domestically. Scheduled replacement with HISAR-A in 2021.

• 12 Blindfire radars ordered in 1983
• 36 launchers ordered in 1983
• 750 Rapier-1 missiles ordered in 1983
• Additional 12 Blindfire radars ordered in 1985
• Additional 36 launchers ordered in 1985
• Additional 750 Rapier-1 missiles ordered in 1985
• 72 units modernized to Rapier-2000 standard between 1997 and 2002
• 840 Rapier-2 missiles ordered in 1999

Template:UAE

United Arab Emirates Army – Rapier systems procured in 1974

• 12 launchers
• 250 Rapier-1 missiles

Template:ZAM

Zambian Air Force – acquired Rapier systems in 1971

• 12 launchers
• 250 Rapier-1 missiles

Former operators

Template:AUS

Australian Army

• Ordered twenty SAM systems in 1975
• Procured 570 Rapier-1 missiles in the same year
• (20 units were second-hand purchases from the UK under 'Project Land-140')

Template:BRN

Royal Brunei Air Force – FSB1 Rapier systems obtained in 1979, last operated by No. 233 Squadron (previously No.33 Squadron) at Penanjong Garrison. Decommissioned in 2010, with No.233 Squadron transitioning to support No.238 Squadron (equipped with Mistral VSHORAD) while preparing for a new air defence system.

• 4 Blindfire radars
• 12 launchers
• 250 Rapier-1 missiles

Template:IDN

Indonesian Army – purchased Rapier systems between 1984 and 1986

• 21 launchers acquired in 1984
• 9 launchers acquired in 1986
• 820 Rapier-1 missiles delivered (300 in 1984, 400 in 1985, and 120 in 1986)

Template:Country data Iran

Imperial Iranian Air Force and Imperial Iranian Army – introduced Rapier systems into service by 1972

• 45 launchers procured in 1970
• 36 launchers procured in 1974
• 1250 Rapier-1 missiles procured in 1970
• 950 Rapier-1 missiles procured in 1973

Template:Country data Iraq

Iraqi Armed Forces – captured from Iran during the Iran–Iraq War, phased out post-2003 conflict

Template:LBY

Libyan Air Force

Template:Country data Qatar

Qatar Armed Forces – adopted Rapier systems starting from service entry in 1983

• 6 Blindfire radars purchased in 1981
• 12 launchers purchased in the same year
• 250 Rapier-1 missiles purchased concurrently

Template:SGP

Republic of Singapore Air Force – began operating Rapier systems from 1981, later replaced by the SPYDER missile system beginning in 2011.

• 6 Blindfire radars ordered in 1981
• 12 launchers ordered simultaneously, with upgrades to Rapier-2000 standard completed between 1998 and 1999
• 250 Rapier-1 missiles ordered initially, modernized to the standard of Rapier-2 during the same upgrade period

Template:GBR

British Army – operated a total of 124 launchers through the Royal Artillery

Template:USA

The United States procured thirty-two Rapier launchers equipped with Blindfire radars in 1981 for air defence of USAFE bases located within the UK. These were operated by the RAF Regiment. An additional fourteen launchers were acquired in 1985 for safeguarding USAFE airbases stationed in Turkey.

Replacement

During the DSEI event in September 2007, it was revealed that the UK Ministry of Defence was financing a study by MBDA UK to explore a successor for the Rapier system, which was expected to be retired around 2020. The proposed solution, the Common Anti-Air Modular Missile (CAMM), would incorporate shared components with the ASRAAM missile currently operated by the RAF. In July 2021, reports indicated that Sky Sabre had commenced acceptance trials and training activities with the Royal Artillery’s 7th Air Defence Group. Deployment plans aimed for the system to be operational in the Falkland Islands by "late summer/early autumn".

Museums

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Rapier launcher exhibited at IWM Duxford

A protected Rapier unit is exhibited within a hangar at IWM Duxford.

Another specimen is presented at the City of Norwich Aviation Museum.

The Aerospace Bristol museum in Filton, Bristol, features an FSB standard Launcher, Tracker, and S.E.Z. on display.

A Rapier 2000 model is showcased at the National Army Museum London.

Additionally, a Rapier system is installed at the Heugh Battery.

External links

• Information on Rapier/Jernas missile from BAe’s website
• Archived BAe webpage about Rapier/Jernas
• Details on Rapier/Jernas missile from MBDA’s official site
• MBDA promotional video featuring Rapier/Jernas missile on YouTube
• Oerlikon Footage of Tracked Rapier demonstrating the Darkfire optical tracker and helmet-mounted cueing system on YouTube