Abstract:
Vehicle frames for battery powered electric vehicles are disclosed. An example apparatus disclosed herein includes a vehicle subframe including a first rail and a first rocker on a first side of the vehicle subframe, and a second rail and a second rocker on a second side of the vehicle subframe, the first side opposite the second side, a first diagonal member coupled between the first rail and the second side of the vehicle subframe, the first diagonal member to transfer a first longitudinal load from the first rail to the second side, and a second diagonal member coupled between the second rail and the first side of the vehicle subframe, the second diagonal member to transfer a second longitudinal load from the second rail to the first side.
Abstract:
A vehicle frame assembly is provided comprising a main rail. The vehicle frame assembly also includes a deflector assembly which has a front member having an inboard end pivotally coupled to the main rail and an outboard end. Moreover, the deflector assembly includes a rear member having an inboard end slidably coupled to the main rail and an outboard end pivotally coupled to the outboard end of the front member. Additionally, a tension member is disposed between the inboard ends of the front member and the rear member. The deflector assembly is operable between a normal use position wherein the tension member is slack and a collision position wherein the tension member is taut.
Abstract:
A vehicle underbody structure includes a pair of longitudinal rails. A tunnel is spaced between the longitudinal rails. A number of nonintrusive support members span between the tunnel and the longitudinal rails. The support members have a hoop shape that surrounds an enclosed area. The hoop shape of the nonintrusive support members is adapted to deform into the enclosed area for preventing a side impact force from damaging the tunnel.
Abstract:
A vehicle frame is provided having a frame. The frame includes a main rail and a lateral rail. A bracket is operably coupled to the main rail. The vehicle frame assembly also includes a wedged shape deflecting member. The wedged shape deflecting member has a first end which is operably coupled to the bracket and a second end which is operable between a standard use position and a collision event position. The standard use position is where the second end is spaced a predetermined distance from the main rail. The collision event position is when the second end is in abutting contact with the main rail. During a collision event, the second end moves from the standard use position to the collision event position such that the deflecting member absorbs and deflects energy imparted on the frame.
Abstract:
Vehicle frames for battery powered electric vehicles are disclosed. An example apparatus disclosed herein includes a vehicle subframe including a first rail and a first rocker on a first side of the vehicle subframe, and a second rail and a second rocker on a second side of the vehicle subframe, the first side opposite the second side, a first diagonal member coupled between the first rail and the second side of the vehicle subframe, the first diagonal member to transfer a first longitudinal load from the first rail to the second side, and a second diagonal member coupled between the second rail and the first side of the vehicle subframe, the second diagonal member to transfer a second longitudinal load from the second rail to the first side.
Abstract:
Vehicle frames for battery powered electric vehicles are disclosed. An example apparatus disclosed herein includes a vehicle subframe including a first rail and a first rocker on a first side of the vehicle subframe, and a second rail and a second rocker on a second side of the vehicle subframe, the first side opposite the second side, a first diagonal member coupled between the first rail and the second side of the vehicle subframe, the first diagonal member to transfer a first longitudinal load from the first rail to the second side, and a second diagonal member coupled between the second rail and the first side of the vehicle subframe, the second diagonal member to transfer a second longitudinal load from the second rail to the first side.
Abstract:
A seating assembly includes a seat and one or more slide rails that slidably engage an underside of the seat and permit longitudinal movement of the seat along the slide rail. The seating assembly further includes one or more load-dissipating assemblies operably coupled to an underside of the slide rail.
Abstract:
A vehicle frame is provided having a frame. The frame includes a main rail and a lateral rail. A bracket is operably coupled to the main rail. The vehicle frame assembly also includes a wedged shape deflecting member. The wedged shape deflecting member has a first end which is operably coupled to the bracket and a second end which is operable between a standard use position and a collision event position. The standard use position is where the second end is spaced a predetermined distance from the main rail. The collision event position is when the second end is in abutting contact with the main rail. During a collision event, the second end moves from the standard use position to the collision event position such that the deflecting member absorbs and deflects energy imparted on the frame.
Abstract:
A collision countermeasure apparatus for a small offset rigid barrier test. The collision countermeasure apparatus includes a cable that is attached between an outrigger and a forward end of a frame rail assembly. The cable reduces the extent of intrusions into the passenger compartment of the vehicle.
Abstract:
A beam sub-assembly for a vehicle includes a beam member and at least one carbon-fiber prepreg bonded to a first portion of an exterior surface of the beam member so as to cover an entire length of the beam member along the first portion.