Size doesn't matterbh wrote:The question I have is radiator area. All of your designs seem (from my naked eye) to decrease the frontal area of the radiators. The cars already have enough cooling issues, which is why they use the inclined radiators for more radiator for their limited frontal area. Also, isn't one purpose of chimneys to help suck more air into the radiators? It seems like they have trouble with cooling on the radiators of that size to me.
No seriously, don't take dimensions and positions on my drawings as a definitive or scale. I also think that more longitudinal position of radiators instead of what we have today would enable use of much bigger radiators (hope this is visible on the drawings).
Yes I'm trying to reduce drag buy decreasing direct confrontation of radiators with air stream hoping that huge amount of air flowing trough the tunnel would be able suck out (pick up) air from the sidepods that is ATM+ while the air in the tunnel is ATM-. Just as air in the diffuser of a carburetor sucks out fuel.
Even more, in carburetor fuel is ATM= and the air is ATM-, while here, the difference between pressures is much greater for sidepods air is ATM+ and tunnel air is ATM-.
*ATM = atmospheric pressure
You could compare it with cooling on fan ground effect cars where sidepod inlets were minimized because the fan was enabling sufficient air flow. My tunnel acts like fan and therefore I believe that this system enables significant reduction of sidepod inlets – reduction of drag.
Apart from that, I’m very curious what would the gain of overall aero efficiency be having in mind much narrow slipstream for the air could flow in huge amount around the monocoque without going so wide or being choked in sidepods as it is the case on modern F1 cars.
Greater stability and speed seam to be gained too using trimaran advantages.
This system works using Venturi tube & Bernoulli equitation principles forgot to mention this but believed that it is obvious.