Abstract: A structural load path assembly includes an upper rail configured to be coupled to a suspension system, a lower rail spaced apart from the upper rail along a vertical direction, a first outer bracket interconnecting the upper rail and the lower rail, a second outer bracket interconnecting the upper rail and the lower rail, a first inner bracket interconnecting the upper rail and the lower rail, wherein the first inner bracket is spaced apart from the first outer bracket along a horizontal direction, and the horizontal direction is perpendicular to the vertical direction, a second inner bracket interconnecting the upper rail and the lower, and a box section sized to receive a shock absorber.

Abstract: A structural load path assembly includes an upper rail configured to be coupled to a suspension system, a lower rail spaced apart from the upper rail along a vertical direction, a first outer bracket interconnecting the upper rail and the lower rail, a second outer bracket interconnecting the upper rail and the lower rail, a first inner bracket interconnecting the upper rail and the lower rail, wherein the first inner bracket is spaced apart from the first outer bracket along a horizontal direction, and the horizontal direction is perpendicular to the vertical direction, a second inner bracket interconnecting the upper rail and the lower, and a box section sized to receive a shock absorber.

Abstract: A light-weight utility vehicle floorboard is provided having a pair of frame channels formed in an interior portion of the floorboard. The frame channels receive a pair of vehicle frame struts therewithin. The floorboard additionally has formed therein a plurality of load dispersing structural ribs (LDSRs) between the frame channels and sides of the floorboard. The LDSRs spread a force generated by a low-speed side impact to the floorboard such that the vehicle frame struts are not damaged. The LDSRs also transfer passenger loads exerted on the outer portions of the floorboard to the DS and PS frame struts.

Abstract: A utility vehicle canopy including a pair of lateral rain channels formed along a forward portion and an aft portion of a top side of the canopy. The canopy additionally includes a pair of longitudinal rain channels formed along a driver side portion and a passenger side portion of the canopy. The longitudinal rain channels interconnected with the lateral rain channels. The vehicle canopy further includes at least one outlet rain channel formed in the top side of the canopy. The outlet rain channel extends between an outer edge of the canopy and one of the lateral rain channels and/or one of the longitudinal rain channels.

Abstract: A retractable canopy system for a light-weight utility vehicle is provided. The system comprises a mounting frame that includes a pair of legs. An upper portion of each leg can be frictionally retained between a pair of corresponding vehicle roof support side struts. Distal ends of each mounting frame leg can be fixedly connected to a fixed structure of the vehicle. At least one deployment frame can be pivotally connected to the mounting frame legs and a canopy can be attached to the mounting frame and the deployment frame. Thus, the canopy can be transitioned between a stowed position and a deployed position by moving the deployment frame.