Yes, up high in the rev range the NA does have the upper hand, forced induction engines 'stalls' just about when the NA engine start making real power.
But at those rev ranges the point is only valid for racetracks, where absolute rpm does rule more than low end power, a race car with it's matched gearbox keep the revs in the sweet spot for NA engines.
In the real world even for canyon carvers, I have yet to met someone who feels a Turbo/supercharged engine runs out of revs on the road, modern cars are just simply too fast for ordinary roads. And I do know a bit about canyon roads, there is this little Sea-to-Sky Highway right here where I live, it used to be a single lane both way undivided highway with no barrier next to a cliff winding up and down, about 100km in length between Vancouver and Whistler. I have been speeding up and down that road since I was 17, took everything from a Miata to what I have now in my garage for a trip. :) Fun time when I was young and stupid, it's normally a 2hr drive, my best time was 45mins in my cousin's 1st gen RX7. Now my wife yells at me if I do even a sub-2hr pace :(
Of course all engine design have trade offs.
Roots type supercharger like those in AMG 55K engine makes instant power boost from idle, but they have the lowest rpm ceiling. A Turbine type supercharger like those from Vortech provides more rpm head room, but trades off idle throttle response, they react more like a old school turbo. Either type takes a ton of HP to make the extra HP.
Turbo engines doesn't take HP to make HP, but they do suffer turbo lags, the bigger the turbo the bigger the lag but the bigger the potential power gains. Some get around the lag by using smaller turbos for smaller absolute gains, some use sequential turbos of equal or unequal sizes, and the newer tech is variable veins or the twin screw turbos in BMW. But all these techs are still limited by the 'stall' speed of the size of the turbo they use, thus all turbo charged engines are rpm limited.
NA engines are actually limited by their intake track, without forced induction they have to suck in the air themselves, long intake runners makes more power down low but sacrifices the top end, short runners the reverse, it's always a trade off in designing NA engines. Engineers tuned the intake tract to resonance at a certain rpm to 'force feed' air into the engine like a supercharger, but this effect only last a very narrow rpm range. Variable intake length gets around this limit somewhere and extends the 'powerband'. This is one of the reason why NA engines' power curve is shaped like they are, gentle slope up until a certain rpm, then it slope sharply up as the resonance kicks in until the max power point, then it drops off greatly again.