What was that about people changing things to suit them?Raptor22 wrote:it may have been the old tyrell team of years gone by but more than a lot has changed since then.

What was that about people changing things to suit them?Raptor22 wrote:it may have been the old tyrell team of years gone by but more than a lot has changed since then.
Ferraripilot wrote:Coefficient wrote:Rather than a stalling device, could there not be another purpose for the air flowing into the nose, down through the wing pylons and then exiting somewhere around the main plane? For example, could the trailing edge of the main plane be designed to exhaust the airflow at high pressure either side of the mandated central wing section in order to create a sealing effect for airflow over the central section of wing to the bib splitter so that turbulent air from around the front wheel assembly/tyres could not bleed into the flow over the central section of wing therefore offering cleaner air to the front of the floor?
I see where you're going with this but I believe what you're outlining is overcomplicated to what the design was intended for, but possible. The tricky part of this technology is that many tracks would require different versions of this wing with different diameters inside the pylons which would affect at what pressure the wing would stall. Obviously a Monza spec wing would be set up in a 'high stall' setting while Monaco would be very low still if none at all.
The idea behind it is wonderful though: run more rake on the front wing full-knowing at a certain speed the front wing will essentially lose 15-20% of its effectiveness allowing for greater in-line speed. The trick will be tuning the thing to know precisely when you want it to stall. One could roughly postulate that the wing stall should be tuned for 15mph above the highest speed reached at the quickest corner on the track. So if it's a 125mph corner, tune the wing stall above 140mph. It's difficult tuning a switch when in essence there is no switch, but a venturi type device in a 90 degree mounted pylon! Difficult technology.
Cocles wrote:The only thing BAR used of Tyrrell was their spot on the grid. In other words, some paper-work. So the statement was moot from the start. Between not knowing what AMG is, what a Works Team is, nor the history of the team itself... this thread seems to fly off into silly-land whenever some of the engineers here decide to venture outside of engineering.
We are just now hearing about other teams passing the tests. Mercedes is most likely two weeks behind, so we should hear soon.marcush. wrote:as far as I understand ,Mercedes has yet to submit its homologation parts for crash testing ?
Could it really be they changed that much after Willis and Costa joined the party?
dren wrote:We are just now hearing about other teams passing the tests. Mercedes is most likely two weeks behind, so we should hear soon.marcush. wrote:as far as I understand ,Mercedes has yet to submit its homologation parts for crash testing ?
Could it really be they changed that much after Willis and Costa joined the party?
Possibly yes, I would think this to be the main reason for missing the first test anyway.marcush. wrote:as far as I understand ,Mercedes has yet to submit its homologation parts for crash testing ?
Could it really be they changed that much after Willis and Costa joined the party?
Raptor22 wrote:Ferraripilot wrote:Coefficient wrote:Rather than a stalling device, could there not be another purpose for the air flowing into the nose, down through the wing pylons and then exiting somewhere around the main plane? For example, could the trailing edge of the main plane be designed to exhaust the airflow at high pressure either side of the mandated central wing section in order to create a sealing effect for airflow over the central section of wing to the bib splitter so that turbulent air from around the front wheel assembly/tyres could not bleed into the flow over the central section of wing therefore offering cleaner air to the front of the floor?
I see where you're going with this but I believe what you're outlining is overcomplicated to what the design was intended for, but possible. The tricky part of this technology is that many tracks would require different versions of this wing with different diameters inside the pylons which would affect at what pressure the wing would stall. Obviously a Monza spec wing would be set up in a 'high stall' setting while Monaco would be very low still if none at all.
The idea behind it is wonderful though: run more rake on the front wing full-knowing at a certain speed the front wing will essentially lose 15-20% of its effectiveness allowing for greater in-line speed. The trick will be tuning the thing to know precisely when you want it to stall. One could roughly postulate that the wing stall should be tuned for 15mph above the highest speed reached at the quickest corner on the track. So if it's a 125mph corner, tune the wing stall above 140mph. It's difficult tuning a switch when in essence there is no switch, but a venturi type device in a 90 degree mounted pylon! Difficult technology.
The Fluidic switching works on pressure not airspeed. it would need to switch the flow to stall the wing as a certain pressure inside the accumulator in the nose cone. That's very tricky because in the turbulent wake of a car ahead you could have a pressure spike above the switching pressure and loose downforce on the front wing when its actually needed most.