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Su-27 Flanker vs Su-33 Flanker-D

Su-27 Flanker vs Su-33 Flanker-D at a glance — top speed 2,500 vs 2,300 km/h, range 3,530 vs 3,000 km, max takeoff weight 30,000 vs 33,000 kg, built 680 vs 22 units.

Sukhoi Su-27 Flanker combat aircraft side profile drawing
🇷🇺 Su-27 Flanker
Sukhoi Su-33 Flanker-D combat aircraft side profile drawing
Specifications
Su-27 Flanker Su-33 Flanker-D
Origin country 🇷🇺 Ex-USSR 🇷🇺 Ex-USSR
Category Combat Aircraft Combat Aircraft
Manufacturer Sukhoi Sukhoi
First flight 20 May 1977 17 August 1987
Year introduced 1985 1998
Number produced 680 units 22 units
Average unit price $30 million $45 million
Wing area 62.0 m² -- m²
Wingspan 14.7 m 15.0 m
Height 5.9 m 6.0 m
Length 21.9 m 22.0 m
Maximum speed 2500 km/h 2300 km/h
Operational range 3,530 km 3,000 km
Service ceiling 18,500 m 18,000 m
Max. takeoff weight 30,000 kg 33,000 kg
Empty weight 16,300 kg 14,800 kg
Total thrust 2 x 12,502 kgf 2 x 12,797 kgf
Performance Radar Chart

Detailed Comparison

Comparing the baseline Sukhoi Su-27 with its navalized derivative, the Su-33, exposes the kinematic and payload penalties incurred when adapting a heavy land-based fighter for STOBAR (Short Take-Off But Arrested Recovery) carrier operations. The Su-27, with 680 units built, established the aerodynamic foundation for modern Russian and Chinese tactical aviation. The Su-33 production run halted at 22 units, restricting the airframe to the mechanical and logistical constraints of Russia's single aircraft carrier, the Admiral Kuznetsov.

Development and Design

The Su-27 emerged in the late 1960s to counter the American F-15, entering Soviet service in 1985. Sukhoi utilized a blended wing-body and leading-edge root extensions to maximize internal fuel capacity and aerodynamic instability, managed by an analog fly-by-wire system. This created a long-range interceptor that eliminated the drag penalty of external drop tanks.

The Su-33, initiated in the 1980s as the Su-27K, adapted this airframe for carrier operations. Navalization dictated structural reinforcements, heavy-duty landing gear, folding wings, and an arrestor hook. To compensate for the center of gravity shift and to generate the required low-speed lift for carrier approaches, Sukhoi integrated canards into the forward fuselage.

Specifications and Performances

The physical modifications imposed a kinematic tax on the naval variant.

  • Top speed drops from Mach 2.35 (2,500 km/h) in the Su-27 to Mach 2.17 (2,300 km/h) in the Su-33.
  • Range decreases from 3,530 km in the Su-27 to 3,000 km in the Su-33, a direct result of increased drag and navalized weight penalties.
  • Takeoff weight limitations on the Kuznetsov's ski-jump strictly cap the Su-33’s practical payload.

While theoretically capable of carrying 6.5 tons on 12 hardpoints, a Su-33 cannot physically launch from a STOBAR deck with full internal fuel and maximum ordnance. The land-based Su-27 operates unconstrained by runway length, utilizing its 30,000 kg maximum takeoff weight to carry full combat loads of R-27 and R-73 air-to-air missiles.

Deployment and usage

The Su-27 validated its air superiority doctrine during the 1998-2000 Eritrea-Ethiopia War, where Ethiopian Flankers defeated Eritrean MiG-29s in multiple beyond-visual-range and dogfight engagements. In the Russo-Ukrainian War, both sides employ Su-27s for combat air patrols and low-level strike missions, taking heavy attrition against modern ground-based air defenses.

The Su-33’s combat record is confined to the Kuznetsov. During the 2016 Russian intervention in Syria, Su-33s conducted ground strikes using unguided munitions. The deployment exposed logistical flaws, resulting in the loss of an Su-33 when an arresting cable snapped, forcing the Russian Navy to temporarily transfer flight operations to land bases at Khmeimim.

Conclusion

The Su-27 has a clear edge in air superiority, payload delivery, and overall operational viability. It dictates the terms of engagement unencumbered by the thrust-to-weight limitations that cripple STOBAR carrier aircraft. The Su-33 is a compromised airframe; it sacrificed the Flanker's inherent kinematic advantages to operate from a ship that rarely leaves port. Consequently, the Russian Navy halted Su-33 procurement in favor of the lighter MiG-29K, rendering the Su-33 an evolutionary dead-end, while the Su-27 airframe continues to evolve in modern iterations like the Su-35.

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Frequently Asked Questions

Which is faster, the Su-27 Flanker or Su-33 Flanker-D?
The Su-27 Flanker is faster with a maximum speed of 2,500 km/h compared to the Su-33 Flanker-D's 2,300 km/h, a difference of 200 km/h.
Which has longer range, the Su-27 Flanker or Su-33 Flanker-D?
The Su-27 Flanker has a longer range at 3,530 km compared to the Su-33 Flanker-D's 3,000 km.
Which can fly higher, the Su-27 Flanker or Su-33 Flanker-D?
The Su-27 Flanker has a higher service ceiling at 18,500 meters (60,695 ft) compared to the Su-33 Flanker-D's 18,000 meters (59,055 ft).
Which is heavier, the Su-27 Flanker or Su-33 Flanker-D?
The Su-33 Flanker-D has a higher maximum takeoff weight at 33,000 kg compared to the Su-27 Flanker's 30,000 kg.
Which is larger, the Su-27 Flanker or Su-33 Flanker-D?
The Su-33 Flanker-D is longer at 22.0 meters compared to the Su-27 Flanker's 21.9 meters.
Which is more expensive, the Su-27 Flanker or Su-33 Flanker-D?
The Su-33 Flanker-D is more expensive at approximately $45 million per unit compared to the Su-27 Flanker at $30 million.
Which entered service first, the Su-27 Flanker or Su-33 Flanker-D?
The Su-27 Flanker entered service first in 1985, 13 years before the Su-33 Flanker-D which entered service in 1998.
Which has been built in greater numbers, the Su-27 Flanker or Su-33 Flanker-D?
The Su-27 Flanker has been produced in greater numbers with 680 units compared to 22 units of the Su-33 Flanker-D.