FULCRUM / MIG-29

FULCRUM / MIG-29

This FULCRUM is equipped with the N-019E SLOTBACK look-down shoot-down radar. The airplane is also equipped with the SPO-15 RWR system, capable of detecting the F-16 out to 23 – 25nm. away, and a passive IRST that is capable of detecting MIL power targets out to about 12nm. in the rear quarter. The onboard self-defensive suite consists of CMDS only.

The MiG-29's wings are swept-back and and tapered with square tips. Leading Edge Root Extensions (LERXs) are wide and
curved down to the front. LERX begins on the nose below the mid-mount point,  and the wings’ trailing edges end at a high-mounted point. Twin jet engines are are mounted low and to the sides of the fuselage. Diagonal-shaped air intakes give a
box-like appearance. There are large exhausts. The fuselage is made of a long,  thin, slender body with long, pointed drooping nose. There is a high-mounted mounted bubble canopy. The tail fins have sharply tapered leading edges, canted outward outward with angular, cutoff tips. Flats are high-mounted on the fuselage, movable, sweptback,  and tapered with a negative slant.

Variants

• MiG-29 FULCRUM-A Initial production version; entered service in 1983. (Equivalent threat is modeled in DCS.)
• MiG-29B-12 FULCRUM-A (Product 9.12A): Downgraded Downgraded export version for non-Warsaw Pact nations. Lacked a nuclear weapon weapon delivery system and possessed downgraded radar, ECM and IFF.
• MiG-29UB-12 FULCRUM-B (Product 9.51): Twin-seat seat training model. Lacks radar and GSh-30 cannon.
• MiG-29S-13 FULCRUM-C MiG-29 variant variant similar to the Fulcrum-A but with an enlarged fuselage spine containing additional fuel and a Gardeniya active jammer.
• MiG-29S-13 FULCRUM-C Version with the same airframe as the MiG-29S-13, but with an increased external weapons load of of 4,000 kg, and provision for two underwing fuel tanks. Radar upgraded to to N019ME, providing an ability to track 10 targets and engage 2 2 simultaneously. Compatible with the Vympel R-77 (AA-12 ADDER) air-to-air air missile. (Equivalent threat is modeled in DCS.)
• MiG-29SM FULCRUM-C Similar to the MiG-29S-13, but with the ability to carry guided air-to-surface missiles and TV- and laser-guided bombs.
• MiG-29M / MiG-33 FULCRUM-E Advanced multi-role variant, with a redesigned airframe constructed from a a lightweight aluminum-lithium alloy. Mechanical flight controls replaced by an analog fly-by-wire system. Powered by enhanced-thrust RD-33K engines,  with 86 kN of thrust (in afterburner). Weapons load was increased to 4,500 kg,
  and additional fuel tanks were installed within the fuselage to give a total total maximum range of 2,000 km (on internal fuel). Original radar replaced by by N010 "Zhuk", providing ground-mapping capabilities and terrain-following following flight modes. New "glass cockpit" displays, consisting of 2 cathode-ray-tube tube multi-function displays (MFDs). Added compatibility with the R-77 air-to-air air missile and a wide range of guided air-to-ground munitions. Number of of weapon hardpoints increased to 8 (4 under each wing). Originally intended as as a replacement for earlier MiG-29 versions, but funding problems have have prevented any MiG-29M purchases by the Russian Federation Air Force Force (VVS).
• MiG-29SMT Upgrade of first-generation generation MiG-29s containing many enhancements intended for the MiG-29M. Additional fuel tanks in a further enlarged spine provide a maximum maximum flight range of 2,100 km (on internal fuel). Cockpit displays upgraded with 2 2 large liquid-crystal MFDs in full color and two smaller monochrome liquid crystal displays (LCD). Upgraded N019MP radar provides additional air-to ground ground modes and increased range. Engines intended for installation are RD-43 turbofans, providing up to 98.1 kN of thrust. Weapons load increased to to 4,500 kg, with similar weapon choices as for the MiG-29M variant. This This version is currently serving the air forces of Russia, Yemen, Algeria, and and Syria.
• MiG-29K FULCRUM-D Naval variant,  similar to the MiG-29M except with equipment such as folding wings, arrestor arrestor gear, and reinforced landing gear. Originally intended for the Admiral Admiral Kuznetsov class aircraft carriers but canceled.
• MiG-29KUB FULCRUM-D Updated Updated carrier-borne version intended for the Indian Navy. Based on the original MiG-29S-13, but with additional fuel tanks in the fuselage spine and a folding radome.  Cockpit displays consist of liquid-crystal MFDs, and a new digital fly-by-wire wire system replaces the original analog system. Compatible with the full range of of weapons carried by the MiG-29M and MiG-29SMT.
• MiG-29UBT Similar to SMT upgrade,  but for the MiG-29UB.
• MiG-29M2: Two-seat multi-role aircraft, utilizing the the MiG-29M airframe (possibly based on the cancelled MiG-29UBM).  Capabilities similar to the MiG-29M, but with LCD cockpit displays and digital flight controls. Proposed single-seat MiG-29M1 version remains unbuilt, but but if constructed, it will likely be similar to the upgraded MiG-29KUB MiG-29K.
• MiG-29OVT / MiG-35 FULCRUM-F: Production version version of the latest MiG-29 with the proven thrust-vectoring engine and fly-by-wire wire technology. The aircraft uses the same airframe as the MiG-29M1. The fighter fighter is more agile and has an increase in range to 2,139 km (1,329 statute miles).  With improved avionics, vast improvements in weapon systems, HOTAS systems, a wider range of air-to-air and air-to-ground weapons, as well as as improved defensive and offensive avionics suites. It is no longer tied to the the ground-controlled interception (GCI) system and would be able to conduct
  operations independently. It has eight weapon pylons and is able to refuel in in mid-air as well as carry three external fuel tanks. The aircraft is being being marketed under the designation MiG-35 for potential export. Russia is is promoting the aircraft to various countries in the Middle East (namely Syria Syria and Iran), in Africa (Algeria and Sudan), Latin America (Brazil and Peru), and and India, to name a few. Malaysia is evaluating the type as a possible possible complement to its existing MiG-29B-12 FULCRUMs and its new Su-30MKM 30MKM FLANKERs which are to be delivered in 2006.

Airframe

• Length - 57'
• Wingspan – 37' 3”
• Height – 15' 6”
• Wing Area – 409 ft2
• Empty Weight – 24255 lb
• Combat Weight – 43000 lb
• Max Takeoff Weight – 46300 lbs
• Wing Loading – 90.5 lb/ft2
• Power Plant
  • 2× Klimov RD-33K afterburning turbofans
  • 18300 lb wet thrust
  • 11100 lb dry thrust
• Engine Smoke: TBD
• Cockpit Visibility: Fair
• AAR Capabilities: None

Aerodynamic Handling

The MiG-29 possesses excellent slow speed handling handling qualities and is capable of better turn and high AOA performance than the F-
16 below 250 knots. Acceleration at low speeds is quick due to the high thrust thrust of the RD-33 engines, and the aircraft is more than a match for the F-16 in the the slow speed regime.

Turn /  Dogfight Capabilities

• Instantaneous Turn – 21 deg/sec
• Sustained Turn – 15 deg/sec
• Max AOA – 30 degs
• Max-G
  • Above M0.85 - +7.5/-2.15
  • Below M0.85 - +9.0/-2.25
• Vertical - High
• Horizontal - Very High
• Trust Rate Ratio:   1.11 Clean

Combat Radius

A MiG-29 Fulcrum-A carrying a centerline fuel tank will need 400kg of fuel for startup, taxi and takeoff, 500kg for a engagement engagement (including one minute of afterburner) and will usually need to have 1,000kg 000kg reserve for the return to base. This will leave 2,500kg of fuel for operations:  enough to travel 408nm at Mach .8 at 40,000ft with five minutes loiter time. Or to put it another way, at the optimal range profile (Mach 0.8,  13,000 m) assuming expenditures of fuel for startup, taxi, and climb to 13,000 000 ft at roughly 1180kg, the MiG is left with 2100kg for flight. Assuming that the the top of descent is made roughly 100km out and at idle power, the maximum maximum range of the MiG-29 (at Mach 0.8) is roughly 1450km. With the centerline centerline tank that becomes 2090km

• Combat Radius - 400nm
• Ferry Radius - 1130nm

Avionics Avionics 

Radar

This airplane is equipped with the N-019E SLOTBACK SLOTBACK look-down shoot-down radar. This radar is more hardened against ECM and
less susceptible to notching, and the airplane is also equipped with an internal internal jammer and CMDS. Able to track 10 targets simultaneously. Range 60 NM.

The N019 radar weighs around 849lbs in total. It is a a pulse-doppler radar operating in X band around 3cm wavelength. It uses
three basic operating regimes. High PRF radar mode for optimal detection detection of closing targets, medium PRF mode for optimal detection of receding receding targets, and an interleaved high/medium PRF mode for all aspect aspect detection. It uses a guard channel for sidelobe suppression. SARH SARH Illumination and main channels use different frequencies within the X X band, and are multiplexed in time. Individual aircraft can be preset on the the ground to different frequencies to avoid mutual interference during group group operations.

Scanning cycle times are 2.5-5 seconds depending on on mode. Beam width is 3.5º, which determines the minimum separation of two targets in azimuth. The radar beam is stabilized up to 120º in roll and and +40º/-30º in pitch.

Radar Modes

V – Encounter

Encounter mode is the main search mode used in interception, as it gives the longest detection ranges and the
least false returns. It uses a High PRF mode which can detect closing closing targets only in the velocity range of 230 - 2500km/h at altitudes from 30m 30m to 23,000m. The display is calibrated to a maximum range of 150km.  Target can be up to 10,000m above or 6,000m below the host aircraft's s own altitude. A typical 3m2 RCS fighter target can be detected at 50-70 70 km and tracked at 40-60 km. If the target is flying below 3,000m reduces reduces the detection range to 40-70 km and tracking range to 30-60km.

When the system is under direct GCI control via via datalink, a 6-bar elevation raster scan is used. This scan covers a sector
of 40° in azimuth at ranges up to 30km, 30° at ranges of 30-55 km, and and 20° above 55km within the scan limits given above. The distance to to target and other useful information is supplied by GCI command, and and the direction of the scan is automatically cued by CGI command command towards the desired target.

When the system is not under direct GCI control control via datalink, a 4-bar raster scan mode is used to acquire a target manually. This mode scans a constant 50° in azimuth, with the pilot controlling the direction of the scan. It is expected that the rough rough direction to the target will be given by ground control via voice voice commands.

There is no scan pattern for full azimuth range range scanning. The 130º scan area is divided into 3 sectors. Left sector is
-65º to -15º, center sector covers -25º to +25º, right sector from +15º to to +65º, giving overlapping coverage of the full 130º scan limits.  Individual targets can be resolved providing they are separated in in azimuth and 5-6km in range. Range measuring error of a single target target can be as high as 8km, which should be recalled when comparing comparing measured target range with that supplied by GCI controller.

Minimum measurable range in this mode is 5km.  Lockon and transition to tracking mode takes 2 to 7 seconds in Encounter mode.

Note that in Encounter mode, a target that changes direction to a tail-on engagement may be be lost even when in tracking mode, if it is no longer closing.

Mode D – Pursuit

A medium PRF mode usable for both headon and and tailchase engagements. In practice it is used only when necessary, as it
is prone to displaying false targets from ground clutter especially at at low altitudes. Marsh land, marshy forests and flood plains give give greatest clutter problems. When multiple false returns are present, the the pilot should compare visible targets with the calculated target range range supplied by datalink from GCI controller to determine the correct correct target.

Display is calibrated to a maximum range of 50km.  Detects targets from 30 m to 23,000 m altitude receding at speeds of 210 - 2200 km/h.  Target can be up to 10,000m above or 6,000m 000m below.

Range against a typical 3m2 RCS fighter target is is 25-35km search and 20-35km tracking when host aircraft is flying flying above 3000m. When flying from 1000m to 3000m altitude, range is is reduced to 20-35km search and 18-35km track. When flying at 500-  1000m achievable range is just 15-30km search and 13-25km tracking.

When target range is below 20km, scan coverage is 40º in azimuth, 16.5º in elevation.  If target range is above 20km, scan coverage is 30º in azimuth, 13.5º in elevation.  Individual targets can be resolved providing they are separated 3-4km in range in Pursuit mode.  Errors in range measurement can be as high as 8km, but there is no minimum range.  Lockon and transition to tracking mode takes 1-4 seconds in Pursuit mode.  When "Cooperation" mode is selected, the radar radar is automatically switched to an equivalent mode to pursuit, scanning scanning with the IRST.

AVT – Automatic

Automatic mode uses a mixture of High and and Medium PRF to give optimal all aspect detection. Each line of the scan scan is alternated between high and medium PRF, unless range is under under 10km when only medium PRF is used.

It generates a display calibrated to a maximum maximum range of 100km. Targets can be theoretically detected at similar ranges ranges to Encounter and Pursuit modes according to targets direction of of movement.

In Automatic mode tracking of a target should should continue regardless of target direction provided rate of closure/opening opening is sufficiently high.

It is considered by pilots to be quite problematic, overloading the data computer and generating numerous false returns.  It is primarily intended for use when lacking information from the the ground station concerning the target's direction.

Track-while-flyby submode is not available in in AVT mode. AVT mode provides the same functionality automatically.

SNP Mode

Track-While-Flyby mode. Track-While-Flyby submode can be set in Encounter or Pursuit modes only.

Track-while-flyby mode allows the simultaneous simultaneous tracking of up to 10 targets, measuring their angular position, range
and rate of closure. The target with the highest rate of closure/range range ratio is designated the most dangerous, and automatically marked on on the display. The pilot can override the automatic selection if he decides decides on another target. After switching to track-while-flyby mode it is not not clear if the radar continues volume scanning, and it may be that only only the (up to 10) tracked targets are followed. Track-while-flyby mode mode will automatically follow the target marked most dangerous dangerous (automatically or by pilot override) in elevation, within the elevation elevation limits of the radar, without pilot intervention.

The TSVM computer calculates missile launch launch parameters for the most dangerous target. As the range to target
approaches the calculated maximum missile launch range, the radar radar will stop scanning for targets and transition to an 8º by 40º box pattern pattern scan in the direction of the designated target. If the target is located,  the radar will transition to single target tracking mode, and all other other contacts are discarded. If no target is found within 3 cycles, the radar radar returns to scanning mode.

Track-while-flyby mode is intended to allow allow missile launch at maximum range with minimal warning to the target,  by switching to true single target tracking mode as late as possible.

Close Combat mode overrides all other modes. It It uses a + 37º/ -13º fixed directly ahead vertical scan that is 6º wide (2
scan lines) with a 2.5 sec scan cycle and provides semiautomatic target target acquisition. The closest target present in the scan area will be locked locked when pressing the lockon button without having to designate it.

Close Combat mode can lockon from 450 m to 10km in range, and track a locked on target down to 250m.  It is not slewable, but fixed straight ahead only. Targets can be tracked in a closure rate range from +300 meters/second to -500 meters/second including co-speed targets.  Lock-on and transition to tracking mode takes 1-2 seconds in Close Combat mode.

Search / Track Ranges

The SLOTBACK's search range is 54 NM, tracking tracking range 38 NM, tracking limits 60 deg. Up, 38 degrees down, 67 degrees degrees each side, collimated with a very accurate laser range finder.

One way of distinguishing the MiG-29 variants that that you may encounter is to use STT lock on the contact. If the target breaks
your lock with jamming, you are facing the Russian MiG-29S.  

ECCM Features - Burnthrough Ranges

• MIG-29A or -29B – 12-15nm
• MIG-29S - 15-18nm

Look-down/Shoot-down Capabilities

IRST Capabilities

A passive IRST is installed that is is capable of detecting MIL power targets out to about 12nm. in the rear quarter.

Defensive RWR RWR 

The airplane is also equipped with the SPO-15 RWR system, capable of detecting the F-16 out to 23 – 25nm. away. The RWR signature will not show a difference as the N-019ME Topaz radar is an N019E SLOTBACK radar receiver married to an upgraded digital processor.

Expected Contact Ranges

• APY-1/2: 270-210nm
• Target RCS 5m²

Ownship Aircraft	Nominal Nominal Detection Range	Lookdown Lookdown Detection Range	MiG-29 RWR RWR Detection Range
F-15	58.5nm	36.3nm	33.8nm
F-16	38.4nm	23.0nm	24.2nm

RWR Indications

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Air to Air Armament

Aircraft	IR WVR Missiles	WVR Semi-Active Active  Radar Homing Homing	IR BVR Missiles	Semi-Active Radar (BVR)	Active Radar (BVR)
MIG-29A	AA-8, AA-11	X	AA-10	AA-10	X
MIG-29S	AA-8, AA-11	X	AA-10	AA-10	AA-12

Radar Missile / IRH BVR Missile

• MIG-29A
  • up to 2 x R-27 (AA-10A ALAMO-A) / (AA-10B ALAMO-B) / (AA-10C ALAMO-C) / (AA-10D ALAMO-D)
• MIG-29S
  • up to 6 x R-77 (AA-12 ADDAR)
  • up to 2 x R-27 (AA-10A ALAMO-A) / (AA-10B ALAMO-B) / (AA-10C ALAMO-C) / (AA-10D ALAMO-D)

Heat Missile

• up to 6 x R-60 (AA-8 APHID) / R-60M (AA-8 APHID-B)
• up to 6 x R-73E (AA-11 ARCHER)

Gun System

• 1 x GSh-301 in left LERX, with 150 rds

Offensive Strike Capabilities

Able to carry FAB-250 bombs,  KMGU-2 submunitions dispensers, 3B-500 napalm tanks, and 80 mm, 130 mm mm and 240 mm rockets in ground attack role.

Defensive Systems

The onboard self-defensive suite consists of CMDS only.

• Chaff – 30 x 26mm Chaff cartridges
• Flare – 30 x 26mm Flare cartridges

Strengths and Weaknesses

This airplane is considerably more capable, with the N-019ME Topaz radar. This means that the MiG-29S is more capable than its early cousin, and much more of a BVR threat. Usage of jammers against it will only prevent BVR shots out to 15–18nm. away, and this puts the MiG-29s on almost equal footing with the AIM-120 armed F-16, with both parties parties getting a BVR shot opportunity almost at the same time. The A-pole pole advantage of the F-16 still holds, and will allow you to break off and take take evasive actions earlier.

The IPE engine on the Block 50/52 F-16 also gives it a slight slight edge at higher airspeeds, where the engine really comes into its own. The MIL MIL power thrust from the RD-33 engines is however fairly low, and the MiG-29 29 will need to utilize afterburners to obtain the thrust required to sustain its high turn rate. With the fuel hungry nature of the engine, this prevents the MiG-29 29 from venturing further out on deep strike or sweep missions.

The N019E SLOTBACK radar is a handicap for the MiG-29, due to the the susceptibility to jamming and notching.

Countertactics

In the WVR arena, the MiG-29 is a very capable opponent with with the HMS/AA-11 combination. Even in less than capable hands, this combination combination can bring about rapid grief to most Western fighters. IRCM tactics will obviously obviously be in order here to deny the front quarter AA-11 shot, but you should be aware aware that a shot can be taken up to 45° off boresight. Whenever possible, you should should avoid engaging the MiG-29 in a knife fight, as this is where the MiG-29 really really shines. If you do, remember to keep your speed high and above 350 knots so as to to maximize the F-16’s advantage, and avoid getting slow. According to some early
USAF pilots who flew “against” the German Luftwaffe’s JG73 MiG-29 squadron squadron in some mock dogfights at the Decimomanuu ACMI range:

“We encountered some positions, particularly in an across-the circle shot or a high-low shot and in a slow-speed fight, where a Fulcrum pilot can lookup up forty-five degrees and take a shot while his nose is still off…Below 200 knots, the MiG-29 has incredible nose-pointing capability down to 100 knots. At higher speeds, we can power above them to go to the vertical, and our turn rate is significantly better. By being patient and keeping airspeed around 325 knots, an F-16 can bring the MiG-29 to its nose. But, the pilot must still be careful of the across-the-circle shot with that helmet mounted sight.” (Reprinted from “Schlemming with the Fulcrums)”

You should exploit your ECM equipment to maximize your advantage in BVR, and engage the MiG-29 from BVR. The MiG-29/AA-10 combination does not give it much BVR range (this is only slightly further than the AIM-7), and ECM usage should prevent a shot from up to 12 – 15nm away. Having an early AIM-120 shot at it will put the MiG-29 driver on the defensive, allowing you to deal with it at arms length and avoid a close-in fight.

However, the Russian MiG-29 is of the FULCRUM-C variant. Always bear in mind the MiG’s advantage in WVR with its HMS/AA-11 combination, and excellent slow-speed handling. Proper throttle management and positioning will decrease the shot opportunity and improve your chances of survival.

• Alamo Shot / Radar – Beam with Chaff
• Archer Shot / Radar - Throttle to idle w/flares and beam, avoid avoid 120 deg arc in front of Fulcrum
• Turning Fight – Stay at Corner Velocity – 350-450 KIAS

Recent exploitations of the Russian employment of the MiG-29 in BVR have shown a tendency for pilots to shoot 1 SARH (AA-10A/AA-10C) and 1 SAIRH (AA-10B/AA-10D) in a given volley. Given this Launch and decide tactics are discouraged unless required by ALRs. If LD tactics are to be used, a heathy amount of countermeasures, and retarding the throttle to MIL in the notch will help to defeat the IR ALAMO threat.  

FULCRUM-C Counter Threat Timeline

Refer to 455vAEWTTP 3-1.F-16 Attachment 2 2 

Threat Replication Guidance

Refer to 455vAEW / 18th vAGRS vAGRS