It’s not spin to offer balance and context. Every system/platform/program/plan has the potential to have issues. It doesn’t become newsworthy until these issues arise.
It was actually 12gs. It did some minor damage to the plane.
Some evidence for that please?
-TR1
http://www.flightglobal.com/blogs/graham-warwick/2008/01/the-truth-about-that-supercrui-1.html
Here’s one, that a few seconds with Google turned up. I imagine if you do a little searching with key words, you’ll find more links corroborating my statement.
That means the Raptor pilot needs to maintain his hard-earned lock for few more seconds than contemporary designs in order to achieve a kill? This all without HMS/HMD compared to others who have one? Well, then this is a far worse penalty than those few % of addtional drag resulting from open bay doors and extended ‘winders.
This assumes that the Raptor has been visually acquired, by the enemy pilot. Once the Raptor gets the -9X in ~2016, this will be even less of an issue.
Until it has done so, for me it stays incapable to exceed M1.0 without afterburner, sorry, mate..
This would be based upon what exactly? LM has said that the F-35 won’t supercruise (their definition is M1.5 and higher). They’ve said nothing about M1 or higher, but lower than M1.5. Even clean F-16s and F-18s can exceed M1 without afterburner.
There’s no evidence that the F-35 can’t exceed M1 without afterburner(only that it can’t exceed M1.5).
28 deg/sec at 20k feet isn’t too shabby.
That was the implication, no? Is it really news that something could potentially be a problem, and that workarounds are in place in that eventuality? As of right now, the F-35A is making very good progress on all fronts.
Ww, at higher altitudes, there’s even less thrust and the weight remains the same, so F22 can only use AB more frequently.
Most of the maneuvers at airshows aren’t at combat speeds, so afterburners are used to quickly regain momentum. Of course there is less drag at higher altitudes too.
How much of an increase is 9 from 3? I think we’re arguing semantics- (you’re arguing the difference between the figures, and I’m talking about the overall percentage in relation to the original figure).
Do you think that most dogfights occur at airshow altitudes, and speeds? I’m not saying the F-22 doesn’t use afterburners at all. Just that it isn’t as reliant.
You have to consider the fact that even without afterburner, it has the power to get up to M1.8, so…..I suspect that would also translate into good sustained energy for maneuvering compared to the Rafale.
It will be far less reliant on afterburner though, which is the crux.
There are all sorts of things that could potentially happen, and if they do, there are plans. Potential is not = likelihood though. At no point did he say that new problems had arisen.
Get your story straight. 300% or 3 times? They’re not the same.
BTW, there’s this little thing about ‘3 times the range for the same size & power’, as well. APG-79 is bigger & more powerful than APG-73. It fits in the same airframe only if you put a new front end on the aircraft. The ‘three times’ is the top end of a range of two or three times the air-air detection range of APG-73 claimed in a 2006 Raytheon publicity blurb (which actually says “With more power than the APG-73, the APG-79 will have two or three times the air-to-air detection range…”), & doubt has been cast on it by many people. To use a vague claim like that as a basis for a general superiority in range of AESAs over otherwise comparable MSAs of 3 to 1 is not wise.
Now . . . CAPTOR & APG-73: the latter is an upgrade of a radar which became operational in 1983, & was declared operational in 1992. CAPTOR became operational in the early 2000s.
That was only one example I posted. Would you care to address the others?
As for 3x vs 300%, I wonder if you’d give your mathmatical explanation. 1x= 100% 2x= 200%…….