Su-57 demonstrations have long faced criticism for their impressive but irrelevant post-stall maneuvers, near-zero-speed pitch-ups, and dramatic directional changes during airshows. Nevertheless, Rostec has issued a new statement that directly contradicts that interpretation. According to the Russian state corporation, the aircraft’s extreme maneuvering capability was intentionally included as an additional defense against missile attacks.
The statement is particularly noteworthy due to the fact that Rostec has now connected the aircraft’s exceptional performance to the stresses imposed on its propulsion system. The Su-57 achieved an effective zero forward speed at an altitude of approximately 600 meters during maneuvers executed by test pilot Sergei Bogdan at Aero India 2025, according to the corporation. According to Rostec, the engine is capable of withstanding internal temperatures that are nearly 2,000°C during this type of extreme flight regime.
The 600-Metre “Freeze” Is the Important Part
The most interesting element of the Russian claim is not simply that the Su-57 can perform a spectacular airshow maneuver. Under carefully controlled conditions, contemporary fighter aircraft are capable of performing breathtaking high-angle-of-attack maneuvers. The more critical issue is the aircraft’s ability to maintain control as it approaches zero speed.
Rostec describes this as one of the most demanding regimes for the propulsion system. Bogdan executed maneuvers that resulted in the fighter appearing to freeze in midair at a height of approximately 600 meters, including an exit to zero speed.
There is an important technical distinction here. The 2,000°C figure should not be interpreted as indicating that each component of the engine reaches 2,000°C. Turbine engines are made of components that are composed of a variety of materials and contain numerous temperature zones. The term “extreme thermal conditions” in Rostec’s text pertains to the power plant’s internal temperature. That is still a significant claim, but it should not be confused with a uniform 2,000°C temperature throughout the engine.
The significance of this is that the engine must continue to generate a stable thrust that is sufficient for the aircraft to operate outside of the conventional aerodynamic regime.
Why Losing Thrust at Zero Speed Is So Dangerous
At normal flight speeds, an aircraft has substantial aerodynamic airflow over its wings and control surfaces. However, conventional aerodynamic control becomes increasingly ineffective at extremely low speeds and very high angles of attack.
That is where thrust vectoring becomes important.
If the aircraft is essentially hanging in the air and thrust suddenly decreases, the problem is not simply that the fighter begins falling. The aircraft may rotate and descend in an uncontrolled manner as a result of the imbalance in forces and moments that can be caused by the loss of thrust. Rostec emphasizes this risk, asserting that even a slight decrease in thrust during the “hovering” phase can result in a chaotic descent and a powerful rotational moment.
Therefore, the propulsion system is not merely a device for generating speed; it is an essential component of the fighter’s flight-control capability.
Supermaneuverability has been long associated with the propulsion architecture of the Su-57. According to Russian aviation sources, the aircraft’s engines are capable of providing thrust-vector control in two planes, which enables the aircraft to sustain control during post-stall maneuvers and at extreme angles of attack.
So Are the Airshow Maneuvers Actually Useful in Combat?
The answer requires some qualification.
It would be misleading to suggest that a Su-57 pilot routinely intends to “hover” in front of an incoming missile. This would make the aircraft an exceedingly straightforward target for many weapons. Nor does performing a Pugachev’s Cobra or a tailslide automatically defeat a modern imaging-infrared or radar-guided missile.
But that is not necessarily what Rostec is claiming.
The more defensible interpretation is that extreme maneuverability expands the pilot’s options during an engagement. Additionally, a fighter that is capable of swiftly altering its flight-path vector, pointing its nose at extremely high angles, and operating at extremely low speeds has the potential to alter its geometry in relation to an attacking missile or aircraft..
This is significant because missile evasion is fundamentally a matter of energy, timing, and geometry. It is not necessary for a combatant to “outrun” a missile. It may instead attempt to force the missile into a challenging engagement geometry, particularly during the terminal phase.
Rostec is therefore presenting supermaneuverability as an additional layer of survivability, rather than as a substitute for electronic warfare, stealth, countermeasures, or conventional high-energy maneuvering.
The F-22 Shows That This Is Not a Russian Concept
Interestingly, the argument that spectacular maneuverability is merely an airshow gimmick becomes difficult to sustain when looking at the F-22 Raptor.
The US Air Force itself explicitly describes thrust vectoring and extreme maneuverability as operational characteristics of the F-22. The Raptor’s flight-control system integrates aerodynamic control surfaces with thrust vectoring, while its two Pratt & Whitney F119 engines use two-dimensional thrust-vectoring nozzles.
The US Air Force has previously described the F-22’s capacity to point its nose across a much larger flight envelope, including down toward zero airspeed. F-22 engineers were quoted in a 2002 Air Force article as stating that thrust vectoring enables the aircraft to remain controllable in slow-speed, high-angle-of-attack conditions, which would result in conventional fighters losing control.
That is remarkably similar to the fundamental aerodynamic philosophy that underpins the breathtaking maneuvers observed during Su-57 demonstrations.
Additionally, the F-22’s capabilities are frequently showcased in public. Raptor demonstration pilots have executed thrust-vectoring maneuvers during airshows, such as the Herbst maneuver and vertical maneuvers. This maneuver uses advanced flight controls, thrust vectoring, and a high angle of attack to rapidly alter direction.
So, to disregard the Su-57’s aerobatics solely because they are performed at airshows would result in an awkward double standard. In the same vein, the American operators of the F-22 employ airshows to exhibit capabilities that are genuinely rooted in the aircraft’s combat design.
However, the two fighters do not use maneuverability in the same manner.
The most significant distinction is that the F-22’s maneuverability is a component of a broader air-combat philosophy that is characterized by stealth, sensors, situational awareness, and first-shot advantage.
The US Air Force characterizes the Raptor’s system as one that is intended to offer an advantage prior to the initiation of a conventional dogfight. This system includes minimal observability, integrated avionics, thrust vectoring, a high thrust-to-weight ratio, and supercruise.
In a similar vein, the Su-57 integrates sensors, high thrust-to-weight performance, thrust-vectoring maneuverability, and low-observable features. However, Russian presentations have historically prioritized its capacity to operate at extreme angles of attack.
This does not necessarily imply that the maneuverability of one aircraft is inherently superior to another. Additionally, an airshow does not illustrate the outcome of an actual missile engagement. Sensors, electronic warfare, missile seeker performance, pilot training, energy state, detection ranges, and numerous other factors would determine the accurate comparison.
The Real Significance of Rostec’s Statement
The new Rostec statement is noteworthy for its more comprehensive explanation of the aircraft’s ability to endure such extreme flight regimes.
The organization is not merely asserting that Sergei Bogdan executed extraordinary aerobatics. It is contended that the propulsion system provides the pilot with the assurance to capitalize on the aircraft’s exceptional maneuverability when it is required, such as in potential missile-evasion scenarios. The connection between the engine’s thermal endurance, thrust stability, and combat maneuvering is specifically emphasized in Russian reporting on the statement.
The Su-57’s famous airshow maneuvers, therefore, should not be dismissed as only entertainment. They are examples of a genuine flight-control and propulsion capability.
At the same time, the most compelling conclusion is that a modern missile will not be defeated by a Cobra, tailslide, or zero-speed maneuver. The more believable conclusion is that the aircraft has been intentionally equipped with a significantly large controllable flight envelope, which can serve as an alternative when conventional maneuvering is no longer effective.
And that is precisely where the comparison with the F-22 becomes revealing: both aircraft demonstrate that extreme maneuverability is not merely an airshow philosophy. It is a technology that their designers considered sufficiently valuable to incorporate into the combat aircraft itself.