List of radars

Last updated

A radar is an electronic system used to determine and detect the range of target and maps various types of targets. This is a list of radars.

Contents

Argentina

NameTypeFunctionPlatform/System(s)OriginNotesRef
INKANmonopulse 2Dair traffic controlground-basedFlag of Argentina.svg  Argentina in service with the National Civil Aviation Administration [1] [2] [3] [4]
INVAP 3D3Dair search radarFlag of Argentina.svg  Argentina in service with the Argentine Air Force since 2011 [5] [6]

Australia

NameTypeFunctionPlatform/System(s)OriginNotesRef
Jindalee over-the-horizon air searchland-based (fixed)Flag of Australia (converted).svg  Australia [7]
CEAFARdigital active phased array ANZAC class frigate Flag of Australia (converted).svg  Australia developed by CEA Technologies [8] [9]

Brazil

NameTypeFunctionPlatform/System(s)OriginNotesRef
EDT-FILAair target acquisition/fire controlland-basedFlag of Brazil.svg  Brazil developed by Avibras [ citation needed ]
OTH-0100over-the-horizonnavalFlag of Brazil.svg  Brazil [ citation needed ]
SABER M60 air surveillanceland-basedFlag of Brazil.svg  Brazil [10] [11] [12]
SABER M200 Multimissão AESAair surveillanceland-based portableFlag of Brazil.svg  Brazil [13] [14]
SABER M200 Vigilante active phased arrayair surveillanceland-based portableFlag of Brazil.svg  Brazil under development [15]
SABER S60 secondary air surveillanceland-basedFlag of Brazil.svg  Brazil
SABER S200R secondary air surveillanceland-basedFlag of Brazil.svg  Brazil
SCP-01 Scipio AMX A-1M Flag of Brazil.svg  Brazil under development by SIATT [16]
SENTIR M20 air surveillanceland-basedFlag of Brazil.svg  Brazil [17]

Egypt

NameTypeFunctionPlatform/System(s)OriginNotesRef
ESR-32A 2Dair surveillance, early warningland-basedFlag of Egypt.svg  Egypt [18]
ESR-32B 2Dair and sea surveillance, early-warningland-basedFlag of Egypt.svg  Egypt
unnamedphased array radar (3D)Flag of Egypt.svg  Egypt to be unveiled at EDEX 2020 [19]

Europe

NameTypeFunctionPlatform/System(s)OriginNotesRef
Active Phased Array Radar AESA 3D air/surface surveillancenavalFlag of the Netherlands.svg  Netherlands [20]
ARS-400airborne[ citation needed ]
ARS-400Mairborne[ citation needed ]
ARS-800airborne[ citation needed ]
ARTHUR PESA counter-battery land-basedFlag of Norway.svg  Norway
Flag of Sweden.svg  Sweden
[21]
Captor AESA multirole Eurofighter Typhoon Flag of Germany.svg  Germany
Flag of Italy.svg  Italy
Flag of Spain.svg  Spain
Flag of the United Kingdom.svg  United Kingdom
developed from AMSAR and CAESAR projects[ citation needed ]
Captor-E AESA multirole Eurofighter Typhoon Flag of Germany.svg  Germany
Flag of Italy.svg  Italy
Flag of Spain.svg  Spain
Flag of the United Kingdom.svg  United Kingdom
developed from AMSAR and CAESAR projects [22]
COBRA counter-battery land-based[ citation needed ]
DARSair command and controlland-based (mobile)Deployable Air operations centre, Recognized air picture production centre, Sensor fusion post[ citation needed ]
EISCAT incoherent scatter scientificland-based (fixed)Flag of Finland.svg  Finland
Flag of Norway.svg  Norway
Flag of Sweden.svg  Sweden
[23]
Erieye AESA air surveillanceairborneFlag of Sweden.svg  Sweden [24]
Flycatcher (KL/MSS-6720)air defense fire controlland-basedFlag of the Netherlands.svg  Netherlands manufactured by Hollandse Signaal Apparaten; operational since 1979[ citation needed ]
GLOBUS space surveillanceland-based (fixed)Flag of Norway.svg  Norway
Flag of the United States (23px).png  United States
[25]
Ground Master 400 AESA 3D air surveillanceland-based (mobile)Flag of France.svg  France [26]
HARD-3D LPI air surveillanceland-based [27]
HEMPAS-CCIAS passive air surveillanceFlag of Greece.svg  Greece under development; status uncertain As of 2010 [28]
L3/2air defense fire controlland-basedFlag of the Netherlands.svg  Netherlands manufactured by Hollandse Signaal Apparaten; operational with the Belgian Army in the 1950s[ citation needed ]
L4/3 (KL/MSS-301)air defense fire controlland-basedFlag of the Netherlands.svg  Netherlands manufactured by Hollandse Signaal Apparaten; operational in the 1960s[ citation needed ]
L4/5 (KL/MSS-3012)air defense fire controlland-basedFlag of the Netherlands.svg  Netherlands manufactured by Hollandse Signaal Apparaten; operational in the 1960s and 1970s[ citation needed ]
PS-05/A pulse Doppler multirole Saab JAS 39 Gripen Flag of Sweden.svg  Sweden [29]
RBE2 PESA multirole Dassault Rafale Flag of France.svg  France [ citation needed ]
RBE2-AA AESA multirole Dassault Rafale Flag of France.svg  France [30]
RASIT Pulse Doppler ground surveillanceland-based (mobile)Flag of France.svg  France developed by Thomson-CSF [31]
S1850M DAA air defensenavalFlag of France.svg  France
Flag of the United Kingdom.svg  United Kingdom
[32]
SAMPSON AESA multi-functionnavalFlag of the United Kingdom.svg  United Kingdom [33]
Sindre IIair defense[ citation needed ]
SMART-L DAA navalFlag of the Netherlands.svg  Netherlands [34]
Spexter 360 AESA multiroleland-basedFlag of Germany.svg  Germany manufactured by Hensoldt [35]
Spexter 500 AESA multiroleland-basedFlag of Germany.svg  Germany manufactured by Hensoldt [36]
Spexter 2000 AESA multiroleland-basedFlag of Germany.svg  Germany manufactured by Hensoldt [37]
Super Fledermaus air defense fire controlFlag of Switzerland (Pantone).svg  Switzerland operational in the 1960s and 1970s[ citation needed ]
Type 901air defense fire control Sea Slug Flag of the United Kingdom.svg  United Kingdom [ citation needed ]
TRML-3D/32 PESA air surveillance and target acquisitionland-basedFlag of Germany.svg  Germany Developed by EADS (now Hensoldt)[ citation needed ]

India

Military

Airborne

  • XV-2000 3D airborne naval surveillance radar for Dornier 228 maritime patrol aircraft.
  • Revathi 3D Naval Medium range surveillance radar derived from the 3D CAR for Shivalik-class frigates.

Land-based

  • Swordfish LRTR - AESA long-range tracking radar for Ballistic missile defence surveillance and fire control.
  • Arudhra MPR - Static 4D AESA Medium power radar for airspace surveillance for ranges exceeding 300 km.
  • ADTCR - Mobile 4D AESA Medium power radar for airspace surveillance
  • Ashwini LLTR - Mobile 4D AESA radar for Low level air targets up to ranges of 200 km.
  • INDRA series of 2D Pulse-doppler medium range airspace surveillance radars
  • Rajendra 3D medium range PESA fire control radar for Akash SAM.
  • Central Acquisition Radar (3D-CAR) PESA tracking radar for battlefield surveillance as part of the Akash SAM system.
  • BMFR - Mobile Quad panel AESA multifunction radar for battery level fire control in QRSAM missile system.
  • BSR - Mobile Quad panel AESA multifunction radar for battery level surveillance in QRSAM missile system.
  • Atulya ADFCR - AESA fire-control radar for upgraded L70 air defence gun.
  • BFSR-SR 2D short range battlefield surveillance radar for the Indian Army.
  • Bharani Low Level Lightweight Radar(LLLR) - portable 2D low level aircraft tracking radar.
  • Swathi Weapon Locating Radar - Mobile 3D PESA Counter-battery radar.

Under development

Iran

Italy

Airborne

Surface based

Military – Naval

Japan

Surface-based

Airborne

People's Republic of China

Military

Land-based

Airborne

Commercial/scientific

Serbia

Soviet Union/Russia

Military

  • 5P-27 "Furke", 3D Air/Surface search radar.
  • Angara MR-300 "Head Net", 2D air surveillance and surface search radar.
  • Angara-A MR-310 "Head Net A", 3D air survrillance and surface search radar. Sometimes used in pair with Top Steer.
  • Topaz-V MR-320M "Strut Pair", Air/Surface search radar.
  • Fregat MR-710 "Top Steer", 3D search radar [38]
  • Fregat MR-750 "Top Plate", 3D search radar replacement for Top Steer on Sovremenny-class destroyers.
  • Fregat-MA MR-760MA "Top Plate", 3-D air search radar.
  • Voskhod MR-600 "Top Sail", somewhat similar to "Top Steer" but larger and operating at lower frequency.
  • Voskhod MR-800 "Top Pair", 3D search radar.
  • Volna 3R41 "Top Dome", Fire control/Target acquisition radar.

Land-based

  • RUS-1 "Rhubarb", Early warning radar
  • A-100 "Kama", Early warning ground control radar
  • P-3 "Dumbo", Early warning ground control radar.
  • P-8 "Knife Rest A", Early warning ground control radar.
  • P-10 "Knife Rest B", Early warning ground control radar.
  • P-12 "Spoon Rest", Early warning ground control radar.
  • P-14 "Tall King", Early warning radar.
  • P-15 "Flat Face A", Surveillance/Target acquisition radar.
  • P-18 "Spoon Rest D", Early warning radar.
  • P-19 "Flat Face B", Surveillance/Target acquisition radar.
  • P-20 "Bar Lock", Early warning ground control radar.
  • P-30 "Big Mesh", Early warning ground control radar.
  • P-35 "Bar Lock", Early warning ground control radar.
  • P-37 "Bar Lock"
  • P-40 "Long Track", Early warning/Target acquisition radar.
  • P-70, Early warning radar.
  • P-80 "Back Net", E-band Early Warning Radar
  • P-100
  • Kasta 2E "Flat Face E" Surveillance radars.
  • PRV-11 "Side Net", Height finding radar
  • PRV-13 "Odd Pair, Height finding radar
  • SNR-75 "Fan Song", Fire control/Target acquisition radar
  • SNR-125 "Low Blow", Fire control/Target acquisition radar
  • 1S91 "Straight Flush", Fire control/Target acquisition radar
  • 30N6 "Flap Lid", Fire control/Target acquisition radar
  • 36D6 "Tin Shield", Surveillance radar
  • 64N6 "Big Bird", Surveillance radar
  • 76N6 "Clam Shell", Low-altitude detection radar
  • 91N6E, Surveillance radar
  • 92N6E, Fire control/Target acquisition radar
  • 96L6E "Cheese Board", All altitude surveillance radar
  • 9S15 "Bill Board A", Surveillance radar
  • 9S19 "High Screen", Sector surveillance radar
  • 9S32 "Grill Pan", Fire control/Target acquisition radar
  • Azov radar "Flat Twin", ABM radar
  • Duga "Steel Yard" or "Russian Woodpecker", Over the horizon radar
  • Dnestr "Hen House", ABM radar
  • Dnepr "Hen House", ABM radar
  • Daryal "Pechora", ABM radar
  • Dunay "Dog House"/"Cat House", ABM radar
  • Volga, ABM radar
  • Don 2N "Pill Box", ABM radar
  • Voronezh, ABM radar
  • 29B6 Container, ABM radar

Airborne

Republic of China (Taiwan)

Containerized CS/MPQ-90 Bee Eye on a truck ROCA Point Defense Array Radar System Truck Display at Chengkungling Ground 20150606c.jpg
Containerized CS/MPQ-90 Bee Eye on a truck
NameTypeFunctionPlatform/System(s)OriginNotesRef
Chang-Shan (Long Mountain)planar arraymulti-function Sky Bow III Flag of the Republic of China.svg  Republic of China [39]
Change Bai 1 (Long White 1)phased arraymulti-function Sky Bow I Flag of the Republic of China.svg  Republic of China [40]
Change Bau 2 (Long White 2)multi-function Sky Bow II Flag of the Republic of China.svg  Republic of China [41]
CS/MPG-25 continuous wavetarget illumination Sky Bow I Flag of the Republic of China.svg  Republic of China derived from AN/MPQ-46 [40]
CS/MPQ-78 3D pulsed dopplerair defense (short range) Antelope air defence system Flag of the Republic of China.svg  Republic of China [42]
CS/MPQ-90 Bee Eye AESAair defenseground-basedFlag of the Republic of China.svg  Republic of China also planned for naval use [43]
CS/SPG-6N(S)surface search Tuo Chiang-class corvette Flag of the Republic of China.svg  Republic of China [ citation needed ]
CS/SPG-6N(T)fire control Tuo Chiang-class corvette Flag of the Republic of China.svg  Republic of China [ citation needed ]
CS/SPG-21Atarget acquisition/fire control Hsiung Feng I Flag of the Republic of China.svg  Republic of China [44]
Sea Bee Eye AESAair defenseship-basedFlag of the Republic of China.svg  Republic of China [45]

United Kingdom

Ground

GL Mk II radar receiver van GL Mk. II radar receiver.jpg
GL Mk II radar receiver van
150 cm Searchlight fitted with No. 2 Mk VI SLC radar Radar and Electronic Warfare 1939-1945 H28386.jpg
150 cm Searchlight fitted with No. 2 Mk VI SLC radar
Modified Radar No. 3, Mk. 7 Yrjo modified AA No 3 Mk 7 F radar Hameenlinna 1.JPG
Modified Radar No. 3, Mk. 7
AWS 2 Radar used by Indonesian Airforce in the 1962, Museum Satriamandala AWS 2 Ground Radar.jpg
AWS 2 Radar used by Indonesian Airforce in the 1962, Museum Satriamandala

Airborne

United States

Military

Radar arrangement on the aircraft carrier Lexington, 1944 CV-16 1944 radar arrangement NAN3-46.jpg
Radar arrangement on the aircraft carrier Lexington, 1944

Early S-band RADAR Designations [51]

DesignationWavelengthPlatform
CXAM 150-cmlarge surface ships
SK-1large surface ships
SK-2large surface ships
SC 50-cmsurface ships
SF10-cmtoo heavy for intended use on PT boats, but used on larger ships
SG10-cmsurface ships
SJ 10-cm submarines
SM3-cm aircraft carriers for direction of night-fighters
SO10-cm PT boats
SU3-cm Destroyer escorts

From February 1943 the US used a universal system to identify radar variants, consisting of three letters and a number, respectively designating platform, type of equipment, function, and version. This system was continued after WWII with multiservice designations being prefixed by 'AN/' for Army-Navy. BuShips 1943 classifications

PrefixDesignation
AAircraft, used in combination with other letters
BIFF
CExperimental
DDirection-finding
EEmergency power
FFire control radar
FSFrequency shift keying
GAircraft transmitting
HSonar hoists
IIntercept radar, aircraft only
JPassive sonar, for submarines
KSonar transmitting
LPrecision calibration
MRadio transceiver
NEcho-sounding
OMeasuring, for operator training
PAutomatic transmitting and receiving
QSonar, for surface ships
RRadio receiver
SSearch
TRadio transmitter
URemote control
VRadar display
WSubmarine sonar
XExperimental
YRadar homing beacon
ZAirborne navigational aids, later replaced with ARN and APN

Multi-service classifications

Multi-service classification codes according to the Joint Electronics Type Designation System.

Specific radar systems

Land-based

Airborne

AN/APB Series
AN/APD Series
AN/APG Series
AN/APN Series
AN/APQ Series
AN/APS Series
AN/APY Series
AN/AWG Series
Other

Commercial/scientific

See also

Notes

  1. "official site". Archived from the original on 2009-02-21. Retrieved 2010-01-08.
  2. First INKAN deployed in 2005
  3. LaNacion: Más plata para reequipamiento militar Archived 2011-05-31 at the Wayback Machine LaNacion:Comprará el Gobierno 11 radares Archived 2011-05-31 at the Wayback Machine (in Spanish)
  4. En materia de seguridad aérea, Invap construyó 11 modelos del Radar Secundario Monopulso Argentino (RSMA) del plan de radarización que se impulsó en 2005, con una inversión cercana a los 100 millones de pesos, ... Invap desarrollará 11 radares más para completar el control aéreo nacional hacia el noreste y sur del país, con una inversión de 126 millones de pesos y un plazo de instalación hacia fines de 2011.
  5. "INVAP - Radares". Archived from the original on 2011-12-19. Retrieved 2011-12-24.
  6. ":: Ministerio de Defensa - República Argentina ::". Archived from the original on 2011-07-18. Retrieved 2022-03-15.{{cite web}}: CS1 maint: bot: original URL status unknown (link)
  7. "Fact Sheet: Jindalee Operational Radar Network" (PDF). Royal Australian Air Force. Retrieved 20 March 2014.
  8. "SEA 1448 Phases 2A/2B – ANZAC Class Anti-Ship Missile Defence (ASMD)" . Retrieved 8 November 2010.
  9. Nicholson, Larissa (13 December 2012). "CEA's Defence support deal". Canberra Times. AAP. Retrieved 30 January 2016.
  10. "RADAR SABER M60" . Retrieved 2010-10-22.
  11. "Radar Saber M60" . Retrieved 2010-10-22.
  12. "Desdobramentos Tecnológicos no Desenvolvimento do Radar SABER M60" (PDF). Retrieved 2011-02-05.
  13. "Desdobramentos Tecnológicos no Desenvolvimento do Radar SABER M60" (PDF). Retrieved 2011-02-05.
  14. "A SOFTWARE COMPONENT LIBRARY FOR RADAR SIMULATORS" . Retrieved 2012-03-06.
  15. Embraer e Exército Brasileiro apresentam o radar nacional SABER M200 VIGILANTE de alerta aéreo antecipado
  16. "Mectron - Produtos". Archived from the original on 2009-10-01. Retrieved 2009-10-20.
  17. "Página Oficial do Centro Tecnológico do Exército (CTEx)". Archived from the original on 2016-03-04. Retrieved 2015-07-05.
  18. "GBP". gbp.com.sg. Retrieved 2019-10-27.
  19. "رادار المسح الجوي والإنذار المبكر ثنائي الأبعاد ESR-32A منتج مصري جديد يظهر خلال فعاليات إيديكس 2018 مصر". www.almusallh.ly (in Arabic). 4 December 2018. Retrieved 2019-10-27.
  20. Jane's Radar and Electronic Warfare Systems, 2007–2008 Edition, Edited by Martin Streetly, ISBN   978-0-7106-2811-4
  21. "Artillery Radar System ARTHUR". Ministry of Defence & Armed Forces of the Czech Republic. Archived from the original on 17 July 2011. Retrieved 6 July 2016.
  22. "The Three Musketeers: Europe's next-gen fighter radars". Jane's International Defense Review. June 1, 2013.
  23. "What is EISCAT". EISCAT. Archived from the original on 2015-10-04. Retrieved 2015-05-23.
  24. "Erieye AEW&C Airborne Early Warning & Control mission system radar (Sweden), Airborne radar systems". Jane's Avionics. 4 April 2011. Archived from the original on June 16, 2012. Erieye AEW&C; Airborne Early Warning & Control mission system radar
  25. "A GLOBUS II / HAVE STARE SOURCEBOOK" (PDF). Federation of American Scientists. 20 September 2013. Retrieved 22 December 2020.
  26. Deagel: Ground Master 400
  27. Aytug Denk (2006). Detection and jamming Low Probability of Intercept (LPI) RADARS (PDF) (Masters). Naval Postgraduate School, Monterey. p. 44. Archived from the original on 2012-04-25.
  28. "Η σελίδα δεν βρέθηκε « www.olympia.gr". Archived from the original on 31 May 2014.
  29. "Janes Radar and Electronic Warfare Systems". Archived from the original on 13 July 2011.
  30. "Active Electronically Scanned Array - AESA RBE2 radar". Thales Group. Retrieved 16 March 2022.
  31. janes.com
  32. , Thales SMART-L-EWC.
  33. "SAMPSON Multi-Function Radar". Archived from the original on 2007-08-19. Retrieved 2007-08-18.
  34. "SMART-L Radar". www.Radartutorial.eu. Retrieved 24 Oct 2011.
  35. "Spexer 360". Hensoldt AG. Retrieved 2 July 2024.
  36. "Spexer 500". Hensoldt AG. Retrieved 2 July 2024.
  37. "Spexer 2000 3D MKII". Hensoldt AG. Retrieved 2 July 2024.
  38. "TOP STEER CW Radar Kiosk -NEM". Archived from the original on 2015-12-18.
  39. Mei, Fu S. "Medium Range Air Defense Radar," Taiwan Defense Review, June 19, 2006.
  40. 1 2 O'Halloran, James C. "Tien Kung I low-to-medium-altitude surface-to-air-missile system, pages 299-300," Jane's Land-Based Air Defense, 2002-2003 Edition.
  41. "Long White 2 (Sky Bow 2 MFR)". cmano-db.com. CMANO. Archived from the original on 1 August 2019. Retrieved 1 August 2019.
  42. "CS/MPQ-78 (Land-based, Antelope)". cmano-db.com. CMANO. Retrieved 1 August 2019.
  43. "Mobile Air-defense Phased Array Radar NCSIST". www.ncsist.org.tw. NCSIST. Retrieved 1 August 2019.
  44. "CS/SPG-21A (Hsiung Feng I FC)". cmano-db.com. CMAO. Retrieved 1 August 2019.
  45. Cheng, Jiawen. "Chinese Academy of Sciences participates in overseas defense exhibition to reveal the range of Lu Shejian II missiles". udn.com. United Daily News. Retrieved 19 January 2020.
  46. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Routledge
  47. Sayer, Chapter XI.
  48. Radar systems Information - The Radar Pages https://www.radarpages.co.uk/download/radar_g97.doc
  49. Routledge, p. 438.
  50. Armed Forces - a6a13 - British Army - Artillery - Artillery Locating Devices - MAMBA
  51. Macintyre, Donald, CAPT RN "Shipborne Radar" United States Naval Institute Proceedings September 1967 pp.81-83
  52. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 Polmar (December 1978) p.143
  53. 1 2 3 4 5 6 7 8 9 10 11 "AN/SPS Series Radars" . Retrieved 2013-02-13.
  54. AN/SPS-54 Archived 2013-04-11 at archive.today
  55. AN/SPS-61 Archived 2013-04-11 at archive.today
  56. AN/SPS-62 Archived 2013-04-11 at archive.today
  57. AN/SPS-65
  58. 1 2 "AN/SPS-69 and AN/SPS-71 radars". Archived from the original on 2012-06-29. Retrieved 2013-03-21.
  59. Friedman, Norman (1997). The Naval Institute Guide to World Naval Weapons Systems, 1997-1998. Naval Institute Press. ISBN   9781557502681 . Retrieved 2013-03-21.
  60. "NGSSR entering next phase of U.S Navy developmental testing | Ultra". www.ultra.group. Retrieved 2023-01-25.
  61. AN/SPS-74
  62. AN/SPS-75
  63. AN/SPS-76
  64. AN/SPS-77
  65. Naval News TRS-4D
  66. AN/SPS-64 Archived 2004-11-05 at the Wayback Machine
  67. Cord, A; Keneally, J; Joyce, F (1964). AN/TPS-39 Information Bulletin (PDF). Sylvania Electronics Systems.
  68. Lockheed Martin data sheet for APG-67 Archived 2011-05-25 at the Wayback Machine
  69. Andreas Parsch (2008-11-26). "AN/APN - Equipment Listing". Designation-Systems.Net. Retrieved 2011-02-26.
  70. AN/APN-241 Archived 2008-03-21 at the Wayback Machine
  71. "AN/APN 242 OEM Replacement for AN/APN-59 Radar". Northrop Grumman. Archived from the original on 2011-01-03. Retrieved 2011-02-26.
  72. "AN/APN 242 Airborne Radar Color Weather & Navigation Radar". Northrop Grumman. Archived from the original on 2012-09-10. Retrieved 2011-02-26.
  73. AN/APQ-164 Archived 2011-02-12 at the Wayback Machine
  74. AN/APQ-180 Archived 2007-11-07 at the Wayback Machine
  75. "AN/APQ-186". Archived from the original on 2008-09-07. Retrieved 2007-06-20.
  76. "US SOCOM's Silent Knight". Defense Industry Daily. 17 June 2020.
  77. AN/APS-145 Lockheed Martin data sheet for AN/APS-145 Archived 2007-09-26 at the Wayback Machine
  78. 1 2 "Navy Moves Forward On Advanced Airborne Radar" . Retrieved 2012-06-18.
  79. AN/APS-150
  80. AN/APY-8 Archived 2008-08-07 at the Wayback Machine
  81. Lynx radar
  82. AN/APY-9 Archived 2016-03-04 at the Wayback Machine
  83. AN/APY-9
  84. AN/APY-10
  85. APY-11
  86. AN/APY-11
  87. AN/APY-12

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The Rainbow Codes were a series of code names used to disguise the nature of various British military research projects. They were mainly used by the Ministry of Supply from the end of the Second World War until 1958, when the ministry was broken up and its functions distributed among the forces. The codes were replaced by an alphanumeric code system, consisting of two letters followed by three digits.

<span class="mw-page-title-main">AN/AWG-9</span> X band pulse-Doppler military aircraft radar

The AN/AWG-9 and AN/APG-71 radars are all-weather, multi-mode X band pulse-Doppler radar systems used in the F-14 Tomcat, and also tested on TA-3B. It is a long-range air-to-air system capable of guiding several AIM-54 Phoenix or AIM-120 AMRAAM missiles simultaneously, using its track while scan mode. The AWG-9 utilizes an analog computer while the APG-71 is an upgraded variant utilizing a digital computer. Both the AWG-9 and APG-71 were designed and manufactured by Hughes Aircraft Company's Radar Systems Group in Los Angeles; contractor support was later assumed by Raytheon. The AWG-9 was originally created for the canceled Navy F-111B program.

AN/APQ-116 is one of the most numerous terrain-following radars (TFRs) produced in the world, and with over 500 units built, it was a member of a family of TFRs consisted of nearly two dozen models, all of which are based on the same general design principle. First developed by Texas Instruments, and later produced by Raytheon when the latter purchased the radar business of the former.

<span class="mw-page-title-main">AN/FPS-124</span>

The AN/FPS-124 is an unattended radar (UAR) providing short range, Doppler radar surveillance of airborne targets. It provides target information to the Regional Operations Control Center (ROCC), and employs built-in-test, performance monitoring/fault isolation and system redundancy enabling it to reconfigure itself when fault detection occurs.

<span class="mw-page-title-main">CFS Saglek</span> Canadian Forces Air Command radar base

Canadian Forces Station Saglek is a Royal Canadian Air Force radar base in the former Pinetree Line and currently part of the North Warning System, located near Saglek Bay in Newfoundland and Labrador, 367.7 miles (591.8 km) north-northwest of CFB Goose Bay.

A radar system has look-down/shoot-down capability if it can detect, track and guide a weapon to an air target that is silhouetted against the ground.

The AN/APG-76 radar is a pulse Doppler Ku band multi-mode radar developed and manufactured by Northrop Grumman.

<span class="mw-page-title-main">AN/APQ-153</span>

The Emerson Electric AN/APQ-153 was an I band radar system developed for the Northrop F-5E fighter aircraft. Required to fit into the tight confines of the originally radar-less F-5, the system offered relatively simple air-to-air modes and a short detection range. The AN/APQ-157 was a similar system with dual displays and controls for the twin-seat F-5F trainer. Many of the F-5s still flying have been upgraded to the improved AN/APQ-159.

The Emerson Electric AN/APQ-159 was an I band/J band radar designed to upgrade Emerson's simple AN/APQ-153 used in the Northrop F-5. It offered roughly double the range, increased off-boresight tracking angles, and considerably improved reliability. Originally intended to be replaced by the further improved AN/APQ-167, modernized F-5s have typically moved to the entirely new AN/APG-69 instead.

Emerson Electric's AN/APG-69 is an X band coherent pulse doppler radar originally designed for the F-20 Tigershark aircraft. It is the successor to the AN/APQ-159. Northrop skipped over the APG-69 for the F-20, choosing the General Electric AN/APG-67 instead. The APG-69 was still used by other F-5 operators, and other light fighter projects, including the ALR Piranha.

The AN/APG-67 is a multi-mode all-digital X band coherent pulse doppler radar originally developed by General Electric for the Northrop F-20 Tigershark program of the early 1980s. It offers a variety of air-to-air, air-to-ground, sea-search and mapping modes, and compatibility with most weapons used by the US Air Force in the 1980s.

<span class="mw-page-title-main">AN/APQ-120</span> Aircraft fire control radar

The AN/APQ-120 was an aircraft fire control radar (FCR) manufactured by Westinghouse for the McDonnell Douglas F-4E Phantom II. AN/APQ-120 has a long line of lineage, with its origin traced all the way back to Aero-13 FCR developed by the same company in the early 1950s. A total of half a dozen FCRs were tested and evaluated on the first 18 F-4s built, but they were soon replaced by later radars produced in great numbers, including AN/APQ-120.

<span class="mw-page-title-main">Aircraft interception radar</span>

Aircraft interception radar, or AI radar for short, is a British term for radar systems used to equip aircraft with the means to find and track other flying aircraft. These radars are used primarily by Royal Air Force (RAF) and Fleet Air Arm night fighters and interceptors for locating and tracking other aircraft, although most AI radars could also be used in a number of secondary roles as well. The term was sometimes used generically for similar radars used in other countries, notably the US. AI radar stands in contrast with ASV radar, whose goal is to detect ships and other sea-surface vessels, rather than aircraft; both AI and ASV are often designed for airborne use.

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