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- Dec 18, 2020
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You just perfectly outlined the reason a computerized system is such a huge advantage. Take just 3 adjustable points with 30 possibilities each, how many possibilities are there?
Add calculations for how it might be optimized for the 3 dimensional variations in weight, momentum, accelerations shifts, wheel distance in brake compression, almost infinate surface interaction variations, and all the other things you just outlined and you have math that looks like lottery odds. The V4S has a computer making those calculations at 22 times a second and adjusting WITHIN setup parameters in dynamic mode. Which you can turn off and go manual. How do you do that mechanically? Stop, get off, get a wrench, guess, look at tires, think about each corner, talk to your mechanics, and make a compromise.
Most of the time companies ask me to invent something, they want take the finesse out of the situation. It sounds philosophically like a sad human degradation of abilities. (That's actually a real problem) However, if the tech makes a change in the hierarchy of abilities and work loads, it's good. That is to say, what you have to think about is less banal and you can therefor focus on a higher level of solution operations, like strategy or the art of the mater, it's great.
In short, you can ride better with less wrenching effort and fewer compromises.
To your point, if you're racing and that's against the rules, make or buy an R. But that's not the discussion question of this thread.
Add calculations for how it might be optimized for the 3 dimensional variations in weight, momentum, accelerations shifts, wheel distance in brake compression, almost infinate surface interaction variations, and all the other things you just outlined and you have math that looks like lottery odds. The V4S has a computer making those calculations at 22 times a second and adjusting WITHIN setup parameters in dynamic mode. Which you can turn off and go manual. How do you do that mechanically? Stop, get off, get a wrench, guess, look at tires, think about each corner, talk to your mechanics, and make a compromise.
Most of the time companies ask me to invent something, they want take the finesse out of the situation. It sounds philosophically like a sad human degradation of abilities. (That's actually a real problem) However, if the tech makes a change in the hierarchy of abilities and work loads, it's good. That is to say, what you have to think about is less banal and you can therefor focus on a higher level of solution operations, like strategy or the art of the mater, it's great.
In short, you can ride better with less wrenching effort and fewer compromises.
To your point, if you're racing and that's against the rules, make or buy an R. But that's not the discussion question of this thread.
It's a fixed cost of X amortized across 20 teams over 10+ years horizon. It's next to zero vs. engine that needs replacement every single race on 2+ bikes per rider.
Pretty sure it is currently very hard to program something that depends on geometry of the bike (rake, pivot, swing arm, chain, gearing, fork offsets, rear linkeage, spring rates and etc), tire profiles, lean angle, GPS position of the bike, the line rider takes into the turn considering there are no overtakes. It's very involved computational task with no clear algorithm how to adjust stuff. And what's worst, it can change from line to line easily.
The last thing you want in the fight for podium is a rider to have zero confidence in his front end because it changing all the time.