This page attempts to compare the combat performance of fighter aircraft of the 2000s.
Specifically, it compares their capabilities as air superiority fighters, that is, fighting other fighter aircraft, which is generally a harder task than shooting down aircraft which are not fighters.
For conciseness, this page will consider only fighter aircraft in manufacture in 2000 and those that are planned to be manufactured later in the decade. Older aircraft are likely to be less capable than the aircraft in this survey. The aircraft included are:
In air-to-air combat, a fighter has to get into a good position to fire its weapons at an enemy fighter. (Or at least it has had to in the past; in the future it may well be that the increased range, speed, and maneuverability of air-to-air missiles means the maneuverability of the fighter doesn't matter, and you may as well use a slow, lumbering passenger jet as your missile carrier).
If a fighter can turn faster than its opponent, it will find it easier to get into a good position, for example behind its opponent. If a fighter has high speed and great acceleration, it will be able to choose whether or not to engage a less capable opponent. It will also have more chance of outmaneuvering or outrunning a missile that is locked on to it.
When aircraft turn, such as when they perform high-gee maneuvers typical of air-to-air combat, they lose speed. The better their acceleration, the quicker they can pick up this speed again.
An aircraft's acceleration is calculated as its thrust minus its drag, divided by its mass. A good measure of comparative acceleration is a plane's thrust to weight ratio (note that if this is greater than 1, the aircraft is capable of flying vertically upwards).
An aircraft's ability to turn can be roughly gauged by its wing loading. This is the mass of the aircraft divided by the area of the wings. The bigger the wings, the easier it is for them to push the aircraft in a direction other than that it is curently travelling. Note that some aircraft use thrust vectoring, where the exhaust from the engines doesn't go straight backwards but can be tilted up or down (and sometimes also left to right). The purpose of thrust vectoring is to increase maneuverability.
| Thrust/ Weight Ratio |
wing loading kg/m² |
notes | |
|---|---|---|---|
| Rafale F2 | 1.04 | 320 | |
| Typhoon | 1.18 | 311 | |
| F-2 | 0.89 | 430 | |
| MiG-29SM | 1.13 | 411 | |
| Su-27 | |||
| Gripen | 0.94 | 341 | |
| F/A-22 | 1.27 | 320 | max takeoff wt; thrust vectoring |
| F-35A | 0.83 | 446 |
Notes:
It is a truism that "amateurs talk about tactics, dilettantes talk about strategy, professionals talk about logistics". The best fighter in the world is useless unless it is available where it is wanted, when it is wanted.
The more an aircraft costs to buy, the fewer units of it can be afforded and vice versa as contractors decide to charge more for lower quantities. Another aspect of availability is that some exporting nations limit who they will sell aircraft to for political motives. Generally, the USA tends to be the most fussy about who it will sell to, and Russia and China the least fussy. Information about aircraft costs is hard to get hold of. Because of inflation, one must also include the year that a cost refers to; figures are in USD unless otherwise specified.
| range, int fuel km |
range, ext fuel km |
ferry range km |
takeoff, landing m |
notes | |
|---|---|---|---|---|---|
| Rafale F2 | ? | 1850 | ? | 400, 300 | |
| Typhoon | ? | 1389 | 3706 | ?, ? | |
| F-2 | ? | 834 | ? | ?, ? | |
| Gripen | ? | 834 | ? | 400, 500 | Usually operates from stretches of road |
| F/A-22 | ? | ? | ? | ?, ? | |
| F-35A | 1000? | ? | ? | ?, ? | |
| F-35B | 1000? | ? | ? | ?, 0 | STOVL |
| F-35C | 1000? | ? | ? | carrier |
Notes:
How many hours of servicing does the aircraft require per hour of flight?
Britain's Defence Evaluation and Research Agency (now split into QinetiQ and DSTL) did an operational evaluation comparing the Typhoon with some other modern fighters in how well they performed against an expected adversary aircraft, the Sukhoi Su-35.
The study used real pilots flying the JOUST system of networked simulators. Various western aircraft were put in simulated combat against the Su-35. The results were:
F/A-22 Raptor 10.1 : 1 Typhoon 4.5 : 1 Rafale 1.0 : 1 Su-35 1.0 : 1 F-15C 0.8 : 1 F/A-18+ 0.4 : 1 F/A-18C 0.3 : 1 F-16C 0.3 : 1
These results mean, for example, that in simulated combat, 4.5 Su-35s were shot down for every Typhoon lost.
The "F/A-18+" in the study was apparently not the current F/A-18E/F, but an improved version. All the western aircraft in the simulation were using the AMRAAM missile, except the Rafale which was using the MICA missile.
One must bear in mind that the full details of the simulation haven't been released, making it hard to verify whether it gives an accurate evaluation of the capabilities of these aircraft (for instance, whether they had adequate knowledge of the Sukhoi and Raptor to realistically simulate their combat performance).
Evaluations based on qualitative and quantitative comparisons between the aircraft are all very well, but actual combat results are what matters. A list of all combats involving these aircraft: