of course not.
The F16bk30 (not so youg !), with 2 external tanks was better. It was publicly released.
Firstly, older F-16 is generally better in dogfight
Secondly, as have been explained to you a thousand times already, those was AoA test and not the test to see which aircraft is better in dogfight
About F35, it's not the facts.
stable platform : probably because not agile. This plane is limited to 7G and loose against a F16. Just facts Bro.
Sensors : the data fusion doesn't work after 10 years of dev.
Stealth : yes, but only in the front sector.
F-35A is limited to 9G, have been tested to 9.9G, F-35C is limited to 7.5G but that to conserve airframe life given that it is a carrier aircraft and subject to corrosion. Moreover, i have taught you already, structure G limit is not the main factor that will limit aircraft agility, at altitude, aircraft rarely reach their structure limit
Sensor fusion: work, simple as that.
Stealth: both F-35 and F-22 have all aspect stealth, just because the side and rear aspect RCS is bigger doesn't mean the aircraft only stealthy from the frontal. The myth that stealth aircraft is only stealth from frontal came from the fact that most enthusiasts like you don't have the slightest idea how radar operates.
Most radar energy is transmitted and received via a main lobe aligned with the antenna’s boresight, but smaller amounts enter through sidelobes that point in almost all directions.
Radar performance degrades at viewing angles where a target must be distinguished from background clutter. Clutter can enter the receiver via the sidelobes, and the processor has no way of knowing the return did not come from the main lobe. Such returns can mask that of the target. Modern radars mitigate this phenomenon with Doppler processing. A pulse-Doppler radar records the time of arrival of a return and also compares its phase with that of the transmitted wave. The difference between the two reveals the target’s radial velocity. The computer creates a 2D range/velocity matrix of all returns, which puts approaching targets in cells with no stationary ground clutter. This is why airborne radars exhibit their best detection ranges against approaching targets. But if the target is being chased, its radial velocity will match some of the ground clutter, and it will be harder to detect.
For example, the Sukhoi Su-35’s Irbis-E radar in high-power, narrow-beam search can detect a 3-m2 (32-ft.2) target at 400 km (250 mi.) from the front but only 150 km from behind, and these ranges drop by half in normal search mode. The hardest airborne targets to see are those moving perpendicular to the radar, because their Doppler profile matches the ground directly below the aircraft. For ground-based radars, the same principles apply, but the antenna is stationary. Fleeing targets stand out as much as approaching aircraft. But ground-based radars are especially challenged in detecting targets moving perpendicularly, because their Doppler profile matches the stationary clutter all around. A tactic used by fighter pilots against ground radars, called “notching,” is to turn perpendicular to the radar, placing the aircraft in the “Doppler notch” in which the radar suffers significantly reduced range.