Abstract: An energy absorbing system includes a subject structure, an energy absorbing strap associated with the subject structure, and a retaining device to selectively retain the energy absorbing strap during an energy addition event. The retaining device surrounds both an upper and lower portion of the energy absorbing strap.

Abstract: An adjustable steering column assembly includes a support bracket, a jacket assembly, and a locking assembly. The support bracket is configured to connect to a vehicle. The jacket assembly is connected to the support bracket. The locking assembly is connected to and disposed between the support bracket and an adjustment lever. The locking assembly includes an inner cam connected to the support bracket and an outer cam rotatably connected to the inner cam and connected to the adjustment lever. The adjustment lever and the outer cam are movable between an unlock position and a lock position.

Abstract: An adjustment mounting bracket assembly for a steering column includes a mounting bracket mountable to a steering column mating element, the mounting bracket having a bracket aperture configured to receive a clamp bolt therethrough, the mounting bracket also having an arcuate slot. The bracket assembly also includes a spacer having a spacer aperture configured to receive the clamp bolt therethrough to align the spacer with the mounting bracket, the spacer having a first engaging feature disposed within the arcuate slot of the mounting bracket and a second engaging feature engageable with a recess of the steering column, disposal of the first engaging feature within the arcuate slot and disposal of the second engaging feature within the recess restricting the degree of freedom of the mounting bracket relative to the steering column.

Abstract: A steering column assembly includes a first energy absorption strap and an energy absorption strap mounting assembly coupled to a jacket assembly. The energy absorption strap mounting assembly includes an engagement surface and at least one standoff. The at least one standoff extends from at least one of the first energy absorption strap and the engagement surface. The at least one standoff spaces the first energy absorption strap from the engagement surface in an assembled condition. The spacing defines a receiving area configured to receive a second energy absorption strap therein.

Abstract: A steering column assembly includes an energy absorption assembly. The energy absorption assembly includes an energy absorption strap, a bracket, a pin, and a cam member. The energy absorption strap includes a plurality of engagement members. The bracket is disposed on at least one of a lower jacket assembly and an upper jacket assembly. The bracket has a first wall disposed opposite a second wall. The pin extends through the first wall and the second wall to couple the cam member to the bracket. The cam member has a plurality of complementary engagement members configured to engage the plurality of engagement members.

Abstract: An adjustment lever deceleration assembly for a steering column includes an adjustment lever moveable between a locked position and an unlocked position. Also included is a clamp bolt operatively coupled to the adjustment lever. Further included is an adjustment lever decelerator operatively coupled to the clamp bolt, the adjustment lever having a base portion and at least one lobe extending from the base portion, the at least one lobe connected to the base portion by a hinge portion. Yet further included is a stationary component engageable with the at least one lobe upon rotation of the clamp bolt toward the unlocked position of the adjustment lever to decelerate the adjustment lever.

Abstract: A steering column assembly includes a first energy absorption strap and an energy absorption strap mounting assembly coupled to a jacket assembly. The energy absorption strap mounting assembly includes an engagement surface and at least one standoff. The at least one standoff extends from at least one of the first energy absorption strap and the engagement surface. The at least one standoff spaces the first energy absorption strap from the engagement surface in an assembled condition. The spacing defines a receiving area configured to receive a second energy absorption strap therein.

Abstract: An adjustable steering column assembly includes a support bracket, a jacket assembly, and a locking assembly. The support bracket is configured to connect to a vehicle. The jacket assembly is connected to the support bracket. The locking assembly is connected to and disposed between the support bracket and an adjustment lever. The locking assembly includes an inner cam connected to the support bracket and an outer cam rotatably connected to the inner cam and connected to the adjustment lever. The adjustment lever and the outer cam are movable between an unlock position and a lock position.

Abstract: An adjustment mounting bracket assembly for a steering column includes a mounting bracket mountable to a steering column mating element, the mounting bracket having a bracket aperture configured to receive a clamp bolt therethrough, the mounting bracket also having an arcuate slot. The bracket assembly also includes a spacer having a spacer aperture configured to receive the clamp bolt therethrough to align the spacer with the mounting bracket, the spacer having a first engaging feature disposed within the arcuate slot of the mounting bracket and a second engaging feature engageable with a recess of the steering column, disposal of the first engaging feature within the arcuate slot and disposal of the second engaging feature within the recess restricting the degree of freedom of the mounting bracket relative to the steering column.

Abstract: A portion of a steering column assembly includes an energy absorption assembly. The energy absorption assembly includes an energy absorption strap and a breakaway member. The energy absorption strap has a first strap portion coupled to an upper jacket assembly and a second strap portion coupled to a lower jacket assembly. The breakaway member has a first breakaway member, a second breakaway member, and a frangible area. The first breakaway member defines a first opening that receives the first strap portion. The second breakaway member defines a second opening that receives the second strap portion. The frangible area joins the first breakaway member to the second breakaway member.

Abstract: A steering column assembly includes a jacket assembly and a bracket. The bracket has a first end portion defining a first opening and a second end portion defining a second opening. The second end portion overlaps the first end portion such that the second opening and the first opening are proximately aligned.

Abstract: An energy absorbing system includes a subject structure, an energy absorbing strap associated with the subject structure, and a retaining device to selectively retain the energy absorbing strap during an energy addition event. The retaining device surrounds both an upper and lower portion of the energy absorbing strap.

Abstract: A column assembly for a steering column is provided. The column assembly includes a bracket configured to support a steering column assembly. The bracket has a first portion for receiving the column assembly and a second portion including a flange portion extending from said first portion. The flange portion includes apertures therethrough, and the flange further includes a flange surface configured for attachment. At least one stability pad is attached to the surface.

Abstract: In an exemplary embodiment of the invention, an energy absorbing device for a steering column assembly is provided. The device includes a first end configured to couple to a first component of the steering column assembly, a second end configured to couple to a second component of the steering column, and an intermediate portion extending between the first and second ends. The intermediate portion includes a curved portion having a radius, and an aperture extending through the intermediate portion. The aperture is configured to shift a collapse characteristic of the energy absorbing device and to facilitate maintaining the radius constant when a force moves the first end relative to the second end and deforms the energy absorbing device.

Abstract: In an exemplary embodiment of the invention, an energy absorbing device for a steering column assembly is provided. The device includes a first end configured to couple to a first component of the steering column assembly, a second end configured to couple to a second component of the steering column, and an intermediate portion extending between the first and second ends. The intermediate portion includes a curved portion having a radius, and an aperture extending through the intermediate portion. The aperture is configured to shift a collapse characteristic of the energy absorbing device and to facilitate maintaining the radius constant when a force moves the first end relative to the second end and deforms the energy absorbing device.

Abstract: A steering column assembly is provided. The assembly includes an outer jacket, an inner jacket telescopingly disposed within the outer jacket for movement along a longitudinal axis with a cavity defined between the inner and outer jackets. A bushing is radially disposed about the inner jacket within the cavity between the inner and outer jackets. The bushing includes at least one tab engaging the inner jacket to interconnect the bushing to the inner jacket and includes at least one radially projecting pad engaging the outer jacket to frictionally interconnect the bushing to the outer jacket for interlocking the inner and outer jackets.

Abstract: A steering column assembly includes a mounting bracket and a column jacket moveable relative to the mounting bracket. The mounting bracket defines a rake slot having rake slot teeth and a telescope slot having telescope slot teeth. A shaft extends through the rake slot and the telescope slot transverse to a longitudinal axis of the column jacket. A rake lock having rake lock teeth is disposed within the rake slot and a telescope lock having telescope lock teeth is disposed within the telescope slot. The shaft extends through and rotatably supports the rake lock and the telescope lock. The rake lock and the telescope lock rotate as the rake lock and the telescope lock move into interlocking toothed engagement with the slot teeth to avoid peak-to-peak contact between the lock teeth and the slot teeth, thereby permitting full meshing engagement between the lock teeth and the slot teeth.

Abstract: A steering column assembly is provided. The assembly includes an outer jacket, an inner jacket telescopingly disposed within the outer jacket for movement along a longitudinal axis with a cavity defined between the inner and outer jackets. A bushing is radially disposed about the inner jacket within the cavity between the inner and outer jackets. The bushing includes at least one tab engaging the inner jacket to interconnect the bushing to the inner jacket and includes at least one radially projecting pad engaging the outer jacket to frictionally interconnect the bushing to the outer jacket for interlocking the inner and outer jackets.

Abstract: A method of manufacturing a steering column assembly having a first jacket and a second jacket with a bushing between the first and second jackets. The method utilizes a manufacturing machine having a loadable member, a fixed member, and a thermal fixture. The method comprises the steps of: assembling the first jacket to the second jacket with the bushing located radially between the first and second jackets to interlock the first and second jackets and prevent axial movement between the first and second jackets; connecting the first jacket to the loadable member of the manufacturing machine; connecting the second jacket to a fixed member of the manufacturing machine; loading the loadable member to apply an axial force to the first jacket; heating the thermal fixture of the manufacturing machine; and melting the bushing until the first jacket moves axially relative to the second jacket.

Abstract: A steering column assembly includes a mounting bracket and a column jacket moveable relative to the mounting bracket. The mounting bracket defines a rake slot having rake slot teeth and a telescope slot having telescope slot teeth. A shaft extends through the rake slot and the telescope slot transverse to a longitudinal axis of the column jacket. A rake lock having rake lock teeth is disposed within the rake slot and a telescope lock having telescope lock teeth is disposed within the telescope slot. The shaft extends through and rotatably supports the rake lock and the telescope lock. The rake lock and the telescope lock rotate as the rake lock and the telescope lock move into interlocking toothed engagement with the slot teeth to avoid peak-to-peak contact between the lock teeth and the slot teeth, thereby permitting full meshing engagement between the lock teeth and the slot teeth.