amcboy
Jedi Hopeful
Offline
This could be an alarmingly long post, but I'll be briefer than usual.
Depending on how you use your brakes, most of the stopping power comes from the front.
Most fixed bias systems are 70/30 to the front.
We ran adjustable bias on a (granted, heavier) road-race car and ran closer to 90/10 front bias. And places like Mid-Ohio where there is giant transitional braking areas even more was dialed into the front.
Consider the weight transfer when you brake.
All that mass landing mostly on the front end...
Considering we are talking about shear values and not tensile values on the TA hub bolts from braking, calculations could be made to see what the average loading is per bolt/stud. I'd expect this value to be pretty low (really).
Now, moving the hub further from the TA will add tensile differential to the fasteners and the TA.
IMHO the hub should be where designed and any bracketry should be outboard of the hub.
I'd also install a manually adjustable proportioning valve and set the differential for the intended use.
Depending on how you use your brakes, most of the stopping power comes from the front.
Most fixed bias systems are 70/30 to the front.
We ran adjustable bias on a (granted, heavier) road-race car and ran closer to 90/10 front bias. And places like Mid-Ohio where there is giant transitional braking areas even more was dialed into the front.
Consider the weight transfer when you brake.
All that mass landing mostly on the front end...
Considering we are talking about shear values and not tensile values on the TA hub bolts from braking, calculations could be made to see what the average loading is per bolt/stud. I'd expect this value to be pretty low (really).
Now, moving the hub further from the TA will add tensile differential to the fasteners and the TA.
IMHO the hub should be where designed and any bracketry should be outboard of the hub.
I'd also install a manually adjustable proportioning valve and set the differential for the intended use.