To what degree do you need to start putting both Coil Over Damper's on the downhill side of the Bearing Column? Flat (09 3 Degrees (5.24% ) 4 Degrees (6.99% ) 1.5 Degrees (3.0% )

To determine the degree at which you need to start putting both coil-over dampers on the downhill side of the bearing column, we need to consider the physics and engineering principles involved. This typically depends on the slope angle and how it affects the load distribution and stability of the system.<br /><br />### Key Considerations:<br />1. **Load Distribution**: As the slope increases, the weight shifts more toward the downhill side. At a certain point, placing both coil-over dampers on the downhill side becomes necessary to maintain balance and prevent excessive stress on the uphill side.<br />2. **Stability**: A steeper slope increases the risk of tipping or instability if the load is not properly supported.<br />3. **Threshold Angle**: The threshold angle for making this adjustment is often determined by practical testing or engineering guidelines.<br /><br />### Analysis of Options:<br />- **Flat (0°)**: On a flat surface, there is no downhill side, so both dampers would remain evenly distributed.<br />- **1.5 Degrees (3.0%)**: This is a very slight slope, and the load shift is minimal. It is unlikely that both dampers need to be moved to the downhill side at this point.<br />- **3 Degrees (5.24%)**: At this slope, the load shift becomes more noticeable, but it may still be manageable with one damper on each side, depending on the design.<br />- **4 Degrees (6.99%)**: This slope represents a significant incline where the load shift could justify moving both dampers to the downhill side to ensure stability and proper load management.<br /><br />### Conclusion:<br />The correct answer is likely **4 Degrees (6.99%)**, as this is the point where the slope becomes steep enough to necessitate moving both coil-over dampers to the downhill side of the bearing column for optimal performance and safety.