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Guest
Guest
I didn't explain myself very well in the other transition thread and I don't want to hi-jack it so here goes, here's a clearer example of what I meant this morning. Curious what you guys think and if you spot flaws of logic please do point them out.
If your rear alignment is perfect and you were to lift up on the nose of the car, your rear alignment would be slightly toed out. At least this was the consensus by some smart and fast builders years back in a long thread and it sure sounds plausible to me. It was stated that as the car traveled through the transition that the nose would in essence be raised in comparison to how the car sits when it is running on the straight section of the hill and the flat part of the track.
Here's where it gets tricky. If the rears are in fact toed out momentarily through the transition, then theoretically one or both of the rear wheels could have a slight steering effect and it would make sense that the heavier weighted rear wheel would have a higher authority on the direction the car is being steered as a result of having rear alignment that's not true through the transition, I believe they referred to it as rear axle frictional differentiation.
It doesn't make sense to me that equally weighting of the rears hasn't been proven to be faster than having more weight on the rear wheel opposite side of the DFW.
Could it be that the extra weight on the rear wheel opposite of the DFW is helping to steer the car through the transition to stay on the rail rather than a car that is equally weighted on the rears that doesn't have the same steering affect towards the rail? Might explain why some cars get wiggly through the transition and some don't.
If your rear alignment is perfect and you were to lift up on the nose of the car, your rear alignment would be slightly toed out. At least this was the consensus by some smart and fast builders years back in a long thread and it sure sounds plausible to me. It was stated that as the car traveled through the transition that the nose would in essence be raised in comparison to how the car sits when it is running on the straight section of the hill and the flat part of the track.
Here's where it gets tricky. If the rears are in fact toed out momentarily through the transition, then theoretically one or both of the rear wheels could have a slight steering effect and it would make sense that the heavier weighted rear wheel would have a higher authority on the direction the car is being steered as a result of having rear alignment that's not true through the transition, I believe they referred to it as rear axle frictional differentiation.
It doesn't make sense to me that equally weighting of the rears hasn't been proven to be faster than having more weight on the rear wheel opposite side of the DFW.
Could it be that the extra weight on the rear wheel opposite of the DFW is helping to steer the car through the transition to stay on the rail rather than a car that is equally weighted on the rears that doesn't have the same steering affect towards the rail? Might explain why some cars get wiggly through the transition and some don't.