The only studies are for fixed wings done in the 80's, and CFD is difficult to do due to the complexity of their wings, so good luck with that. I haven't seen any compelling evidence to counter my claims.3jawchuck wrote: ↑25 Mar 2018, 23:55Indeed, birds are aerodynamically better suited to flying than F1 cars are. Who could have imagined.godlameroso wrote: ↑25 Mar 2018, 23:14....
Better aerodynamically is a stretch, maybe in a specific fixed condition sure.
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What argument are you making now? Originally you started with stating F1 cars use aerodynamic appendages that are found on birds. You showed several pictures of birds and cars with similar looking shapes on them but that clearly serve different purposes. You were shown evidence to the contrary and you have still not provided anything to back up your claims. What do you want? Discussion would require more than you making blind assertions without evidence.
And since I know you guys are a little short on imagination, here I inverted this image to show more than a passing resemblance to a diffuser. You can even see the low pressure "lifting" the feathers.
Obviously a few differences, due to it's large wingspan relative to it's body (1.4m) this golden eagle doesn't need a concave diffuser, a convex one works just fine, also the feathers reduce separation. In this image the bird has just picked up a 1kg fish and is flying off with it.
More interesting is the curve from the bird's body to it's wing tips, it's almost like it's exploiting the "infinity wing" principle. In that the path the air takes maximizes surface area of the control surfaces. The diffusers on F1 cars take a similar path spilling on either side of the central section and taken on a curve via the keels in the diffuser. The longer path increases the surface area virtually.
https://www.youtube.com/watch?v=X8BufOqfZlE