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F-14 Tomcat vs Su-35 Flanker-E

F-14 Tomcat vs Su-35 Flanker-E at a glance — top speed 2,485 vs 2,400 km/h, range 3,000 vs 4,500 km, max takeoff weight 33,724 vs 34,500 kg, built 712 vs 151 units.

Grumman F-14 Tomcat combat aircraft side profile drawing
🇺🇸 F-14 Tomcat
Sukhoi Su-35 Flanker-E combat aircraft side profile drawing
Specifications
F-14 Tomcat Su-35 Flanker-E
Origin country 🇺🇸 United States 🇷🇺 Russia
Category Combat Aircraft Combat Aircraft
Manufacturer Grumman Sukhoi
First flight 21 December 1970 19 February 2008
Year introduced 1972 2014
Number produced 712 units 151 units
Average unit price $38 million $83 million
Wing area 52.5 m² 62.0 m²
Wingspan 19.6 m 15.3 m
Height 4.9 m 5.9 m
Length 19.1 m 21.9 m
Maximum speed 2485 km/h 2400 km/h
Operational range 3,000 km 4,500 km
Service ceiling 17,069 m 18,000 m
Max. takeoff weight 33,724 kg 34,500 kg
Empty weight 18,191 kg 19,000 kg
Total thrust 2 x 12,224 kgf 2 x 14,000 kgf
Performance Radar Chart

Detailed Comparison

Designed forty years apart, the Grumman F-14 Tomcat and Sukhoi Su-35 Flanker-E approach air superiority through inverted doctrines. The F-14 was engineered as a carrier-based interceptor, reliant on the AWG-9 radar and AIM-54 Phoenix to destroy Soviet bombers beyond visual range. Conversely, the Su-35 evolved from the Su-27 as a land-based air superiority fighter weighted toward kinematic performance and high-angle-of-attack maneuverability over raw standoff intercept metrics.

Development and Design

Grumman’s F-14 utilized variable-geometry wings to bridge conflicting US Navy requirements: long on-station loiters at low speeds and Mach 2 intercepts. Early iterations suffered from Pratt & Whitney TF30 engines, which experienced compressor stalls at high angles of attack—a fatal flaw in dogfighting until General Electric F110 engines arrived in the F-14B. Sukhoi’s Su-35S, emerging decades later, replaced the Su-27’s mechanical controls with a digital fly-by-wire system and integrated 3D thrust-vectoring AL-41F1S turbofans. While the Tomcat required a radar intercept officer to manage the AWG-9, the Su-35 reduced pilot workload via cockpit automation. Sukhoi opted for the Irbis-E passive electronically scanned array (PESA) radar, placing it at a technological disadvantage against modern fighters equipped with active (AESA) systems.

Specifications and Performances

Both airframes operate in the heavy fighter class, sharing maximum takeoff weights near 34,000 kg.

  • Thrust: The Su-35 generates 27,400 kgf compared to the F-14’s 22,408 kgf.
  • Agility: The Russian airframe achieves a thrust-to-weight ratio exceeding 1.1:1 at combat weight, enabling post-stall aerodynamics that the F-14 airframe could not mechanically survive.
  • Speed & Range: Top speeds are functionally identical (2,485 km/h for the F-14; 2,500 km/h for the Su-35). Range metrics favor the Su-35 (3,600 km vs. 3,000 km), reflecting the fuel-carrying efficiency of the Flanker’s blended wing-body design over the drag-heavy swing-wing mechanics of the Tomcat.

Deployment and usage

The F-14 achieved its highest kill ratios with the Iranian Air Force during the 1980–1988 Iran-Iraq War. Iranian Tomcats scored over 130 kills against Iraqi aircraft, validating the AIM-54 in combat. In US service, the Tomcat scored specific kills against Libyan fighters before transitioning to a strike role over Iraq. The Su-35S deployed to Syria in 2016 for fighter sweeps, facing no aerial opposition. Over Ukraine, the VKS utilizes the Su-35S with R-37M missiles for standoff engagements. Russian forces have lost multiple Su-35s to ground-based air defenses, exposing gaps in its electronic warfare integration. Export orders from Egypt and Indonesia were canceled due to CAATSA sanctions.

Conclusion

In a kinetic comparison, the Su-35 holds the edge in modern air-to-air combat. Its thrust-vectoring engines and digital flight controls provide a distinct within-visual-range advantage over the F-14’s mechanical limitations. While the Tomcat executed its 1970s fleet defense mandate by intercepting targets at 160 km with the AIM-54, the Su-35’s integration of the R-37M matches this standoff distance while retaining close-in agility. The Su-35 outmatches the F-14 in raw flight performance and armament flexibility, though its reliance on PESA radar architecture caps its effectiveness against AESA-equipped modern adversaries.

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Frequently Asked Questions

Which is faster, the F-14 Tomcat or Su-35 Flanker-E?
The F-14 Tomcat is faster with a maximum speed of 2,485 km/h compared to the Su-35 Flanker-E's 2,400 km/h, a difference of 85 km/h.
Which has longer range, the F-14 Tomcat or Su-35 Flanker-E?
The Su-35 Flanker-E has a longer range at 4,500 km compared to the F-14 Tomcat's 3,000 km.
Which can fly higher, the F-14 Tomcat or Su-35 Flanker-E?
The Su-35 Flanker-E has a higher service ceiling at 18,000 meters (59,055 ft) compared to the F-14 Tomcat's 17,069 meters (56,000 ft).
Which is heavier, the F-14 Tomcat or Su-35 Flanker-E?
The Su-35 Flanker-E has a higher maximum takeoff weight at 34,500 kg compared to the F-14 Tomcat's 33,724 kg.
Which is larger, the F-14 Tomcat or Su-35 Flanker-E?
The Su-35 Flanker-E is longer at 21.9 meters compared to the F-14 Tomcat's 19.1 meters.
Which is more expensive, the F-14 Tomcat or Su-35 Flanker-E?
The Su-35 Flanker-E is more expensive at approximately $83 million per unit compared to the F-14 Tomcat at $38 million.
Which entered service first, the F-14 Tomcat or Su-35 Flanker-E?
The F-14 Tomcat entered service first in 1972, 42 years before the Su-35 Flanker-E which entered service in 2014.
Which has been built in greater numbers, the F-14 Tomcat or Su-35 Flanker-E?
The F-14 Tomcat has been produced in greater numbers with 712 units compared to 151 units of the Su-35 Flanker-E.