i see this two ways...
first off, we know the engine is a "vacuum", the pistons suck air on the down stroke.
under only vacuum situations, the manifold will behave one way. air is being drawn into the ports from every available "corner" inside the intake manifold.
under pressure, i believe it will act a complete different way. reason? one way it's being pushed through, filling cavities and voids, and will follow certain shapes and directions, the other way it's being pulled through and will not draw in all the same ways.... you all know that as long as the throttle plate is open, and the turbo is pushing air, the intake is being pressurized (duh) and the air entering the manifold isn't going to the exact same thing as it will under a vacuum. what it does under pressure i don't exactly know. the turbo should be pushing more air into that manifold than the engine can readily accept, correct? hence the pressure building on the boost gauge. that air is likely going to do something very different as the pressure builds and the air just stacks up in there, instead of just flowing along all the different shapes and contours of the manifold. i think anyone into audi's can tell you that a stock 3B IM is a very inconvenient design inside, and they are good for.... 600whp? so, i highly doubt my manifold is worse (but i could be completely wrong! it wouldn't be the first time)
if you watch my videos, the second one with the vacuum, you can see with nothing going on, the smoke falls from the top of the plenum at the slot to the bottom, and when the vacuum is turned on, it completely disperses the smoke and then draws it straight down(i thought that was cool). i made a channel to go under all 5 ports and did the same test, it draws in the same manner as just doing it from #5. under pressure, it pushes the air to follow the outer edge of the plenum and causes it to spiral in the middle. obviously it won't do that constantly under normal engine operation with the different cylinders flowing and not flowing and back pulses and such, but i don't think i can monitor that unless i find a way to have thick plexiglass ends and then use some kind of H2O injection to be able to see actual flow patterns under engine operations.
i would absolutely love to see this thing tested in real world conditions. so long as it doesn't hurt performance, i don't care really. it's a fun experiment and engineering challenge. i've never seen a design like mine, not to say it hasn't been tried, but hey! maybe i'm lucky and stumbled across something decent! maybe i just designed an intake that gives better flow characteristics and just increased power and the engines ability to make better use of the fuel. (Issam) are you going to tell me that i haven't? i never said i did, but it's all up in the air before something is actually tested in real world situation. even all the computer stuff isn't 100% accurate, though i do admit that it helps for sure to get an idea of what is most likely happening.
so, while i am mostly designing and building this thing from my head and crazy thought processes, i'm not ruling anyone's suggestions or critiques out completely
carry on the conversation as long as there is something more than "this design will not work" with no reasoning behind it. that's just useless banter. i want productive banter!

the flow chart you have Issam, doesn't quite convince me. it's just a *vacuum* flow chart. put each of those intakes on the same block with the same turbo(under pressure!), and tune it according to the 02 and egt feedback which will likely vary from one intake to the next due to their air distribution design differences. THAT is a real world test. i 100% said my tests in the videos aren't like real world, but they can give me someone of an idea of what's going on.
maybe i'll take this more seriously and have some kind of end caps milled up so that i can screw thick plexiglass to them so it can be seen what's going on, on a real engine. i don't have an engine dyno or real good ways to check this, so bear with me if #1. it doesn't happen, or #2. it takes a while
