Sand Car Independent Rear Suspension
Format
SOECS Senior Project Demonstration
Faculty Mentor Name
Kyle Watson
Faculty Mentor Department
Mechanical Engineering
Abstract/Artist Statement
The current rear suspension design of the sand car consists of an extended swing arm with a solid axle connecting the drive wheels. This design only works well for flat surfaces and for going straight. An independent rear suspension would allow for greater suspension travel, which would allow the vehicle to keep all four wheels on the ground while operating on uneven terrain. Since most existing independent rear suspension kits on the market are made for two or four-seat sand cars, which are much bigger than our single-seat car, we have designed and fabricated our own suspension system. The design process for our suspension included building a 3D Solidworks model, running finite element analysis on our model based on a static load to see how the stress was distributed in the suspension system, and assembly of the system. Our new design gives the all-terrain vehicle better mobility, vehicle stability, and improved ground clearance while also shortening the vehicles length.
Location
School of Engineering & Computer Science
Start Date
27-4-2013 2:00 PM
End Date
27-4-2013 3:30 PM
Sand Car Independent Rear Suspension
School of Engineering & Computer Science
The current rear suspension design of the sand car consists of an extended swing arm with a solid axle connecting the drive wheels. This design only works well for flat surfaces and for going straight. An independent rear suspension would allow for greater suspension travel, which would allow the vehicle to keep all four wheels on the ground while operating on uneven terrain. Since most existing independent rear suspension kits on the market are made for two or four-seat sand cars, which are much bigger than our single-seat car, we have designed and fabricated our own suspension system. The design process for our suspension included building a 3D Solidworks model, running finite element analysis on our model based on a static load to see how the stress was distributed in the suspension system, and assembly of the system. Our new design gives the all-terrain vehicle better mobility, vehicle stability, and improved ground clearance while also shortening the vehicles length.