Russian Air Defense Radars |
IntroductionDefense Electronics Industry |
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RUSSIAN NAME | GRAU |
NATO Code Name | Designer | IOC |
Freq Band |
Type / Function | Range (km) |
Associated Air Defense Weapon |
BACK NET | E low S-Band | Early Warning/GCI | 300km | SA-5 GAMMON | ||||
BACK TRAP | E | Early Warning/ACQ | 410 | SA-5 GAMMON | ||||
P-35 / P-35M / P-37 | 1RL139 | BAR LOCK | E/F | modification of TOKEN Early Warning Target indication tracking guidance | 200km | SA-5 GAMMON | ||
ST-67 "Salute" | 5N69 | BIG BACK | L | Early Warning/GCI | 600 | SA-5 GAMMON | ||
P-30M | .. | BIG BAR | modification of TOKEN | |||||
64N6 91N6E | BIG BIRD | S | Early Warning/ACQ Double-sided search phased array | 300 |
SA-10 GRUMBLE SA-20 GARGOYLE SA-21 Triumf | |||
P-30 "Khrustal" | .. | BIG MESH | modification of TOKEN | |||||
.. | 9S15/9S15M 1RL140 | Bill Board | .. | .. | .. | Early warning | .. | SA-12 SA-23 |
Nebo-SV / P-18M Nebo-M 55ZH6M | 55ZH6M / 1L13 | BOX SPRING | NNIIRT | .. | VHF, L, X | Surveillance | .. | .. |
96L6E | CHEESE BOARD | phased array |
SA-21 Triumf | |||||
.. | 5N66 5N66M 76N6 | CLAM SHELL | .. | .. | Continuous wave low-altitude | .. |
SA-10 SA-20 | |
.. | .. | CROSS LEGS | ChiCom L-Band EW radar | |||||
.. | .. | CROSS OUT | modification of TOKEN | |||||
.. | .. | CROSS SLOT | ChiCom design from Soviet TOKEN | |||||
DOG EAR | G | Target Acquisition | 50km 35km |
SA-9 / SA-13 ZSU-23-4 gun | ||||
P-3 | Pegmatite-3 | DUMBO | 70-75mc | Early Warning radar | ||||
PWS-75/SNR-75 | FAN SONG | E/F/G *** | Fire Control | 60-145*** | SA-2 GUIDELINE | |||
.. | .. | FIRE CAN | AAA Fire Control | |||||
.. | 9S35 9S35M 9S35M1 | Fire Dome | .. | .. | Tracking | .. | SA-11 SA-17 | |
.. | .. | FIRE WHEEL | Fire Control with AAA and missile | |||||
.. | 5N63 5N63S | Flap Lid | .. | .. | Phased array | .. | SA-10 | |
FLAP WHEEL | I | Fire Control | 35 (est.) | S-60 gun | ||||
P-15 Trail | 1RL13 / 1RL12 | FLAT FACE* | NNIIRT | 1955 | C (UHF) 805-914mc | Target Acquisition | 250 | SA-3 GOA SA-6 SA-8 AAA Not in use |
39N6E Kasta | 2E2 | Flat Face X | ||||||
.. | .. | Flat Screen | .. | .. | .. | .. | .. | .. |
.. | 3R90 | Front roof | .. | .. | Tracking | .. | SA-11 | |
Kama RLK | .. | GAGE | Early Warning | |||||
GIN SLING | E/F I/J D | Fire Control / Tracking (Range Measurement) (Msl Guidance) | 100+km | HQ-2 [PRC SA-2] | ||||
.. | 92N2E 92N6E 96N6E | Grave Stone | .. | .. | Phased array | .. | SA-21 | |
.. | 9S32 9S32M | Grill Pan | .. | .. | Fire control | .. | SA-12 SA-23 | |
GUN DISH | J | Fire Control | 20 | ZSU-23-4 gun | ||||
.. | 9S19 9S19M | High Screen | .. | .. | Anti-missile search | .. | SA-12 SA-23 | |
1RL144 1RL144M | HOT SHOT | E/J | acquisition / tracking | 18-20 | SA-19 GRISSOM | |||
P-8/10 | KNIFE REST | A (VHF) 71-93mc | Early Warning | 70-75km | SA-2 GUIDELINE | |||
LAND ROLL | J | Fire Control** | INA | SA-8 GECKO | ||||
PRV-9 | .. | Little Pie | .. | .. | HF | .. | .. | SA-1 |
P-40 | 1S12 / 1RL128 | LONG TRACK* | E | Target Acquisition | 150+ (30 alt) |
SA-4 SA-6 GAINFUL SA-8 | ||
SNR-125 | LOW BLOW | I | Fire Control | 40-85 | SA-3 GOA | |||
.. | .. | MOON CONE | ChiCom variant of the SCR-270 | |||||
.. | .. | MOON FACE | ChiCom variant of the SCR-270 | |||||
PRV-17 Ruler 1984 Azimut | 1RL141 | ODD GROUP | LEMZ | altimeter | in service | |||
PRV-13 | 1RL130 | ODD PAIR | LEMZ | 1965 | E | Height | ??? | SA-5 GAMMON Scan: 3-6rpm |
1S32 | PAT HAND | H | Fire Control | INA | SA-4 GANEF | |||
PRV-9/10/10M | 1RL19 | PATTY CAKE | E | height finder | ||||
.. | .. | PEEL GROUP | naval LOW BLOW Track-while-scan radar | |||||
.. | .. | RICE CAKE | X-Band ChiCom Height Finder | |||||
.. | .. | ROCK CAKE | Height Finder - first single dish, nodding S-Band | |||||
.. | .. | Score Board | .. | .. | Enemy and identity | .. | SA-6 | |
.. | .. | Scrum Half | .. | .. | .. | PESA | .. | SA-15 |
PRV-11 Vertex | 1RL119 | SIDE NET | LEMZ | 1961 | E | Height Finder | 28km | SA-2 GUIDELINE SA-3 GOA SA-4 SA-5 GAMMON Not in use |
.. | .. | Sky Watch | .. | .. | .. | .. | .. | .. |
.. | .. | SLANT MESH | modification of TOKEN | |||||
.. | 9S86 | Snap Shot | .. | .. | .. | Fire control | .. | SA-13 |
.. | 9S18M1 / 1RL135 | Snow Drift | .. | .. | .. | Fire control | .. | SA-11/SA-17 |
Ramona | Soft Ball | passive ELINT system | ||||||
.. | .. | SPONGE CAKE | Height Finder - modification of ROCK CAKE | |||||
P-12 Yenisei P-12NP Irtysh | 1RL14 1RL114 | SPOON REST | NNIIRT | 1956 1971 | A(VHF) 81-86mc & 146-163mc | 2-axis Target Acquisition | INA | SA-2 GUIDELINE SA-6 |
P-18 Terek | 1RL131 | SPOON REST D | NNIIRT | A(VHF) 81-86mc & 146-163mc | 2-axis Target Acquisition | INA | SA-2 GUIDELINE SA-6 | |
5N62 | SQUARE PAIR | H | Fire Control | 255km (160-270) | SA-5 GAMMON | |||
P-15 / P-15M | SQUAT EYE | C | 128km |
SA-3 SA-5 GAMMON | ||||
.. | .. | STONE CAKE | Height Finder - modification of ROCK CAKE | |||||
1S91 | STRAIGHT FLUSH | I | Fire Control ** Target indication tracking guidance | 60-90 (10 alt) | SA-6 GAINFUL | |||
.. | .. | STRIKE OUT | modification of TOKEN | |||||
.. | .. | Strut Curve / Strut Pair | .. | .. | .. | .. | .. | .. |
P-14 Druzhba | 44z6, 5H84 / 1RL113 / 5N84A | TALL KING | NNIIRT | 1959 | A 169-175mc | Early Warning | 600km | SA-1 / SA-5 GAMMON |
Nebo Nebo-M | 55ZH6M | TALL RACK | NNIIRT | .. | VHF, L, X | Surveillance | .. | .. |
PRV-16 Reliability PRV-9 Tilt-2 | 1RL19 1RL132 | THIN SKIN | LEMZ | 1960 1970 | H C-Band | first Soviet C-Band Height Finder | 240 | SA-4 GANEF SA-6 GAINFUL SA-8 |
ST-68UM | 19Zh6, 35D6 (36D6) 5N59 | TIN SHIELD | ??? | Three-coordinate Early Warning / GCI | 200km |
SA-2 GUIDELINE SA-3 GOA SA-5 GAMMON SA-10 GRUMBLE | ||
P-20 Peryskop | .. | TOKEN | S-Band EW/GCI "V" beam type | |||||
30N6 30N6E 30N6E1 30N6E2 64N6 91N6E | Tomb Stone | S | Phased array Early Warning/ACQ | 300 |
SA-10 GRUMBLE SA-20 GARGOYLE SA-21 Triumf | |||
Volna | 3R41 | TOP DOME | .. | .. | I/J | target tracking/missile guidance | SA-300F Naval | |
MR-800 | .. | TOP PAIR | .. | .. | C/D/E/F | Surveillance | SA-300F Naval | |
MR-750 | .. | Top Plate/Top Mesh | .. | .. | .. | Fire control | .. | SA-11 |
.. | .. | Top Sail | .. | .. | .. | .. | .. | .. |
MR-75 | .. | Top Steer | .. | .. | D/E | Surveillance | .. | SA-300F Naval |
Tamara | Trash Can | passive ELINT system | ||||||
.. | 9S18 | Tube Arm | .. | .. | .. | Fire control | .. | SA-11/SA-17 |
.. | .. | WHIFF | AAA Fire Control | |||||
.. | .. | YO-YO | .. | .. | .. | fire control | .. | SA-1 |
Barrier-E | .. | .. | .. | .. | .. | Remote low altitude warning | .. | .. |
Delta | 29N6 | .. | .. | .. | .. | Automatic surveillance system | .. | .. |
Gamma-DE | 67N6E | .. | .. | .. | .. | phased array Search | .. | SA-21 |
“Garmon” / "Harmonium" | 1L122 | .. | .. | .. | .. | Surveillance | .. | .. |
"Jessna River-M" (Desna M) | 22Zh6 | .. | .. | .. | .. | Surveillance | .. | .. |
Niobium-SV | .. | .. | .. | UHF | Surveillance | .. | .. | |
P-19 | 1RL134 | .. | .. | .. | .. | .. | .. | .. |
Phazotron | .. | .. | .. | .. | .. | PESA | .. | SA-22 |
Podsolnukh-E | .. | .. | .. | .. | .. | HF ground wave coast surveillance | .. | .. |
Protivnik GE | 59N6E | .. | .. | .. | .. | Early warning | .. | SA-20 GARGOYLE SA-21 Triumf |
R-113 | .. | .. | .. | .. | .. | Fire control | .. | SA-1 |
Rezonans - N/NE | .. | .. | .. | .. | .. | Surveillance | .. | .. |
RUS-1 | Reven | .. | .. | .. | .. | .. | .. | .. |
RUS-2 | Redut-40/42 | .. | .. | .. | .. | .. | .. | .. |
RUS-2S | Pegmatite-2 | .. | .. | .. | .. | .. | .. | .. |
Yenisei | 77T6 | .. | .. | .. | .. | ABM Engagement Radar | .. | S-500 Prometey / Triumfator |
5H87 | .. | .. | .. | .. | .. | .. | .. | |
.. | SCR-270 | ChiCom produced from U.S. SCR-270 | ||||||
SJ-202 | ??? | Fire Control / Acquisition | 115 km | HQ-2 [PRC SA-2] | ||||
.. | .. | .. | .. | .. | .. | .. | .. | .. |
.. | .. | .. | .. | .. | .. | .. | .. | .. |
INA: Information not available
* It is likely that these are also employed with the SA-8 GECKO .
** LAND ROLL and STRAIGHT FLUSH also have short-range target acqusition capabilities. LAND ROLL uses frequency band H for acquisition; STRAIGHT FLUSH uses both G and H.
*** Depending on model.
Carlo Kopp noted in 2010 that the NNIIRT 52E6MU Struna-1MU/Barrier E is a multistatic, low-power tripwire system, using a passive coherent location (PCL) technology similar to the U.S. LM Silent Sentry design. Like the Silent Sentry, the Barrier E is limited in effect to low- and medium-altitude targets. What is often unstated about PCL systems is that the “transmitters of opportunity” such designs rely upon (for example, VHF- and UHF-band television and radio stations) use antenna designs specifically built to transmit almost all of their power near the ground— power transmitted upward is considered wasted in such applications. The result is that the effectiveness of such systems is very limited at high altitudes.
Carlo Kopp noted in 2010 that while VHF-band is the focal area for Russian counterstealth development, highpower L-band radars at 24 to 30 centimeters are an area of active development because stealth designs strongly optimized for the centimeter bands suffer appreciable radar signature increases in the L-band, even if not as pronounced as in the VHF-band. The VNIIRT 67N6E Gamma DE is a good example of such, as it is a high-power mobile L-band AESA design intended for air defense and ballistic missile defense applications. Like the Nebo SVU and Nebo M RLM–D radars, it can be mechanically rotated, or locked to a sector to perform Aegis-like electronic beam steering sector searches. Similar advanced digital processing is employed. VNIIRT claims the ability to acquire and track a 0.01-square-meter target at 70 nautical miles range.
Resources
In June 1969, after analyzing the capabilities of artillery reconnaissance and target designation systems in service with NATO, the Strela Research Institute (now Strela NPO, part of the Almaz-Antey Concern) began developing a domestic reconnaissance radar for MLRS and mortars . Development work (ROC) "Lynx" provided for reaching a reconnaissance range of up to 10 km. At the same time, the Hawk-2 development project was launched, which makes it possible to determine targets at a distance of up to 60 km. But his fate turned out to be short: the specialists of the Ministry of Defense came to the conclusion that work on the Hawk-2 should be suspended, and the development of the Lynx should be continued. And in June 1975, the Tula plant "Arsenal" manufactured a prototype of the artillery radar complex 1RL239 "Lynx", which was put into service two years later. So the Soviet army received at its disposal a fully autonomous radar system mounted on an MT-LB armored tractor, equipped with topographic location, orientation and navigation equipment. The work of the complex was to process radio signals reflected from shells and missiles. According to the data obtained, describing a fragment of the trajectory, and according to the characteristics of artillery pieces, both a potential enemy and own artillery, stored in the memory, the onboard computer system, taking into account the topographic reference, made the identification of the projectile and a complete calculation of the entire trajectory of the projectile, unguided rocket or operational -tactical missile and determined the firing position of a gun or launcher with an accuracy of tens of meters. It was enough to strike. The crew of the complex consisted of four people - the head of the station, the station operator, the signal operator and the driver. And here is a remarkable detail. In order to protect against powerful radio wave radiation, the crew closed the periscopes and all hatches with curtains during operation, while others, when the emitter was on, were instructed not to approach the radar closer than 600 meters. At one time in Afghanistan, the staff of the Limited Contingent of Soviet Forces consisted of four artillery regiments from artillery reconnaissance batteries, which were armed with one Rys complex each. However, in mountainous terrain, the radar proved to be ineffective, and besides, there were difficulties in protecting personnel from radio waves. According to some reports, "Lynx" today may be in the armed forces of Russia, Azerbaijan and Moldova. Range of reconnaissance of firing positions: mortar - up to 12 km, cannon artillery - up to 9 km, MLRS - up to 16 km; firing control range: mortars - up to 14 km, cannon artillery - up to 11 km, MLRS - up to 20 km. The experience of wars and local military conflicts has shown that the one who reacts faster to the enemy’s fire raid wins in battle, therefore, in the late 1980s, the USSR began to develop multifunctional reconnaissance complexes: in Tula - 1L219 Zoo-1, and in Zaporozhye - 1L220 "Zoo-2". The collapse of the country led to the fact that the development enterprises became competitors. A multifunctional three-coordinate radar with a phased antenna array was placed at the Zoo-1 station. With its help, it became possible to detect firing positions of howitzers at ranges up to 12 km, mortars - up to 17 km, MLRS at a distance of 20-22 km, and launch positions of tactical missile systems at a distance of 45 km. The automation of the complex is capable of simultaneously tracking 12 air targets. Per minute, "Zoo-1" "processes" up to 70 shells, calculates their launch points and transmits data to fire weapons. And if necessary, the Zoo can take over the flight control of unmanned aerial vehicles. It is also envisaged that the RLC will be turned into an airfield control tower. At present, the counter-battery complex is part of the command and control batteries and artillery reconnaissance of artillery brigades; according to the state, the battery was supposed to have three such complexes. In Syria, in a “set” with a self-propelled Msta-S and a towed Msta-B, the Zoo-1 self-propelled radar reconnaissance complex was tested, which allows you to simultaneously detect up to 12 enemy firing systems at a distance of up to 40 km. That is why it is difficult for the artillery of the Armed Forces of Ukraine to win artillery duels. At the MAKS-2013 exhibition, the Almaz-Antey Concern demonstrated an already deeply modernized version of the complex - 1L260 Zoo-1M with improved detection range and accuracy. There is evidence that one Russian radar "Zoopark-1M" was captured by the Ukrainian side during the counter-offensive near Kharkov. Tactical and technical characteristics of the RLC 1L219 "Zoo-1: Antenna type - HEADLIGHT, range - GH 5 cm, power - 30 kW; provides reconnaissance/control of firing positions of 81-120 mm mortars at a distance of 20-22 km, firing positions of 105-155 mm artillery at a distance of 15-20 km, firing positions of 122-240 mm MLRS at a distance of 30-35 km, firing positions positions of tactical missiles 40-45 km. During the SVO, the combat capability of the 1L271 Aistenok portable ground and artillery reconnaissance complex was also tested, which allows you to detect mortar positions at a distance of 5 km. Correction of fire is carried out by accompanying the projectile on the trajectory. The advantage of the complex is that it is suitable for carrying by calculation. Weight "Stork" - 135 kg. Another "participant" in modern counter-battery combat is the promising complex for reconnaissance of firing (starting) positions of artillery "Yastreb-AV", which is produced by NPO Strela. The performance characteristics of the RLC have not yet been disclosed, but it was stated that the Yastreb-AV is two to three times superior to existing counter-artillery systems, both Russian and foreign. Some experts admit that the "Hawks" have already been tested in Ukraine - in particular, they were involved in minimizing the shelling of Donetsk by artillery of Ukrainian troops during referendums. Presumably, the "Hawks" aimed 203-mm heavy howitzers "Malka" at enemy positions . The American AN/TPQ-36 counter-battery radar has a reconnaissance (control) range of artillery firing positions of 18 km, and of missiles - 24 km. The radar is capable of tracking up to 20 targets. A net loss to the Russian "Zoo". But this station has a big plus - it is massive. The US Army today has more than 100 units of such radars. The complex is supplied to 15 states, more than 25 units went to Ukraine. But to replace the AN / TPQ-36 and AN / TPQ-37, Lockheed Martin has already created the AN / TPQ-53 mobile counter-battery radar, which provides detection of firing positions of mortars, artillery pieces and MLRS at ranges up to 60 km, unmanned aerial devices and adjusting the fire of their artillery. In fact, it can withstand the entire line of Russian barrel systems and MLRS systems. In addition, the US Army is armed with the AN / TPQ-48 portable counter-battery radar, mainly designed to detect mortar installations. The accuracy of determining targets at a distance of 10 km is only 50 mm. These radars were also supplied by the Armed Forces of Ukraine. Effective, judging by open data, is the counter-battery radar - the COBRA radar, created for the Bundeswehr by a consortium of EADS companies. The radar provides the determination of the coordinates of the positions of enemy artillery, mortar batteries, as well as improvised missiles used by terrorists. In addition, the COBRA radar can calculate the impact points of shells and missiles and notify its units of the threat of fire damage. The radar is equipped with a flat active phased antenna array. The radar reconnaissance range is 40 km in a sector of 90 degrees in azimuth. Maximum productivity - detection of 40 firing positions in two minutes. The COBRA radar for their armed forces was purchased by France, Great Britain, and Türkiye. Today, Israel, Turkey, Norway, together with Sweden, are developing their own counter-battery radars. Since modern warfare is conducted with the use of long-range and high-precision artillery systems, many countries have already adopted or are developing counter-battery radars with the corresponding capabilities. Back in December 2020, the unique 1B76 Penicillin artillery reconnaissance complex (developer and manufacturer of the Russian state corporation Rostec) began to enter the Russian army, the purpose of which is not only reconnaissance of the positions of self-propelled artillery, howitzers, mortars, multiple launch rocket systems, but also missiles for various purposes, including missiles of air defense systems. "Penicillin" receives and captures acoustic and thermal signals from gun shots and ammunition explosions, then the operator receives the exact coordinates of the target and puts them on a special electronic map. The time for obtaining the coordinates of a single target is no more than 5 seconds. The complex is made on the basis of the KamAZ all-terrain vehicle. It has remote sound-receiving and optical-electronic modules with infrared cameras. To avoid "human factor" errors, the complex is fully automated. Ukraine will use its own design "Zoo-2" in the hostilities, and the condition was initially set that this radar should be distinguished by an increased range of determining coordinates. In 2018, the developer announced the completion of the development of design documentation for the new radar of the Zoo-3 complex. In the same year, this radar was seen at a parade in Kyiv, and the following year it was put into service. According to the data that appear in the media, the Ukrainian "Zoo-3" is superior to the Russian "Zopark-1" in terms of reconnaissance and control range, however, it has a lower "throughput" for determining targets. But in general, it can be noted that the Ukrainian colleagues did not waste time in vain. However, due to the decline of the Ukrainian defense industry, a full-fledged serial production of the RLC was not established.
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