Abstract: A steering clamp yoke includes a first side surface and a second side surface. The first side surface has a first surface segment and a second surface segment that is disposed in a non-parallel relationship with the first surface segment. The non-parallel relationship between the second surface segment and the first surface segment enables a bolt that is inserted into a bolt hole of the steering clamp yoke to contact both sides of the bolt hole to reduce or minimize bolt bending.

Abstract: A shaft assembly includes a yoke defining a first bore that extends from a first face towards a second face along a first axis. The first bore has an inner surface that defines a key that extends towards the first axis and a first bore first flat that extends along the first axis and is spaced apart from the key. A second bore that extends from a third face towards a fourth face along a second axis that is disposed transverse to the first axis. The third face and the fourth face each extend between the first face and the second face.

Abstract: A shaft assembly includes a yoke defining a first bore that extends from a first face towards a second face along a first axis. The first bore has an inner surface that defines a key that extends towards the first axis and a first bore first flat that extends along the first axis and is spaced apart from the key. A second bore that extends from a third face towards a fourth face along a second axis that is disposed transverse to the first axis. The third face and the fourth face each extend between the first face and the second face.

Abstract: A steering clamp yoke includes a first side surface and a second side surface. The first side surface has a first surface segment and a second surface segment that is disposed in a non-parallel relationship with the first surface segment. The non-parallel relationship between the second surface segment and the first surface segment enables a bolt that is inserted into a bolt hole of the steering clamp yoke to contact both sides of the bolt hole to reduce or minimize bolt bending.

Abstract: A lever assembly for controlling a lock of a steering column assembly includes a lever body extending from a first end to a second end. Also included is a pivot portion integrally formed with the lever body and disposed at the second end of the lever body, the pivot portion defining a hollow portion and pivotable about an axis. Further included is an insert disposed within the hollow portion of the pivot portion and rotatable about the axis, the insert defining a receiving feature for receiving a fuse extending from the pivot portion, the fuse breaking upon application of a load that exceeds a predetermined load.

Abstract: An adjustable steering column for a vehicle is provided. The adjustable steering column includes a mounting bracket configured to be secured to an adjacent vehicle component, a compression bracket movably positioned relative to the mounting bracket, and a column jacket extending along a first axis and having an upper jacket and a lower jacket telescopically coupled to one another. The adjustable steering column further includes a locking mechanism movable between a locked position and an unlocked position configured to selectively restrict adjustment of the upper jacket in a telescope direction, and at least one release mechanism configured to allow telescoping movement of the upper jacket with the locking mechanism in the locked position in response to an excessive axial force applied to the column jacket. At least one energy absorbing mechanism is configured to absorb energy during telescoping movement of the upper jacket with the locking mechanism in the locked position.

Abstract: An adjustable steering column for a vehicle is provided. The adjustable steering column includes a mounting bracket configured to be secured to an adjacent vehicle component, a compression bracket movably positioned relative to the mounting bracket, and a column jacket extending along a first axis and having an upper jacket and a lower jacket telescopically coupled to one another. The adjustable steering column further includes a locking mechanism movable between a locked position and an unlocked position configured to selectively restrict adjustment of the upper jacket in a telescope direction, and at least one release mechanism configured to allow telescoping movement of the upper jacket with the locking mechanism in the locked position in response to an excessive axial force applied to the column jacket. At least one energy absorbing mechanism is configured to absorb energy during telescoping movement of the upper jacket with the locking mechanism in the locked position.

Abstract: A method for constraining an upper portion of a steering column assembly of a vehicle to translate along a preferred path comprises providing a telescoping steering column assembly with an upper column positioned for use by a vehicle operator and with a power assist module positioned remotely from the vehicle operator. A position lock bracket is disposed about the upper column, and the position lock bracket is conditionally fixed to the vehicle. A guide bracket is fixed to the vehicle and configured so as to constrain the upper column to translate along the preferred path. A steering column assembly comprises an upper column and a power assist module. A position lock bracket is disposed about the upper column and conditionally fixed to the vehicle. A guide bracket is fixed to the vehicle and configured so as to constrain the upper column to translate along a preferred path.

Abstract: A steering column assembly includes a column jacket extending along a longitudinal axis and a steering shaft rotatably supported by the column jacket. A power assist module includes a housing coupled to the column jacket and a motor. The motor applies a torque to the steering shaft. An isolator connection interconnects the housing and the column jacket to permit rotational flexure of the power assist module relative to the column jacket, i.e., the power assist module may rotate relative to the column jacket, thereby preventing undesirable rotation of a lever mounted to the column jacket in response to the motor applying the torque to the steering shaft.

Abstract: A steering column assembly includes a column jacket extending along a longitudinal axis. A mounting bracket is coupled to the column jacket and includes a first plate disposed adjacent the column jacket and a second plate disposed opposite the column jacket from the first plate. A first clamp shaft is coupled to and extends through the first plate along a first transverse axis. A second clamp shaft is coupled to and extends through the second plate along a second transverse axis. The first and second transverse axes intersect the column jacket. A cam mechanism is coupled to the first clamp shaft for moving the first clamp shaft axially along the first transverse axis. A bridge includes a generally U-shaped cross section partially encircling the column jacket to interconnect the first clamp shaft and the second clamp shaft for moving the second clamp shaft concurrently with the first clamp shaft.

Abstract: An adjustable steering column assembly includes a column jacket extending along a longitudinal axis. The column jacket includes a compression bracket mounted thereto, and is supported by a mounting bracket. A pawl engages a telescope slot defined by the compression bracket in interlocking engagement to mechanically lock the longitudinal position of the column jacket relative to the mounting bracket. A transverse cam mechanism moves the pawl generally vertically into and out of engagement with the telescope slot. An axial cam mechanism compresses the compression bracket against the mounting bracket. The transverse cam mechanism and the axial cam mechanism are operated by shaft extending along a shaft axis intersecting the column jacket. The transverse cam mechanism and the axial cam mechanism each include first and second cam mechanism disposed on opposing sides of the column jacket and simultaneously operable by a lever.

Abstract: An adjustable steering column assembly includes a column jacket extending along a longitudinal axis. The column jacket includes a compression bracket mounted thereto, and is supported by a mounting bracket. A pawl engages a telescope slot defined by the compression bracket in interlocking engagement to mechanically lock the longitudinal position of the column jacket relative to the mounting bracket. A transverse cam mechanism moves the pawl generally vertically into and out of engagement with the telescope slot. An axial cam mechanism compresses the compression bracket against the mounting bracket. The transverse cam mechanism and the axial cam mechanism are operated by shaft extending along a shaft axis intersecting the column jacket. The transverse cam mechanism and the axial cam mechanism each include first and second cam mechanism disposed on opposing sides of the column jacket and simultaneously operable by a lever.

Abstract: A steering column assembly includes a column jacket extending along a longitudinal axis. A mounting bracket is coupled to the column jacket and includes a first plate disposed adjacent the column jacket and a second plate disposed opposite the column jacket from the first plate. A first clamp shaft is coupled to and extends through the first plate along a first transverse axis. A second clamp shaft is coupled to and extends through the second plate along a second transverse axis. The first and second transverse axes intersect the column jacket. A cam mechanism is coupled to the first clamp shaft for moving the first clamp shaft axially along the first transverse axis. A bridge includes a generally U-shaped cross section partially encircling the column jacket to interconnect the first clamp shaft and the second clamp shaft for moving the second clamp shaft concurrently with the first clamp shaft.

Abstract: A steering column assembly includes a column jacket extending along a longitudinal axis and a steering shaft rotatably supported by the column jacket. A power assist module includes a housing coupled to the column jacket and a motor. The motor applies a torque to the steering shaft. An isolator connection interconnects the housing and the column jacket to permit rotational flexure of the power assist module relative to the column jacket, i.e., the power assist module may rotate relative to the column jacket, thereby preventing undesirable rotation of a lever mounted to the column jacket in response to the motor applying the torque to the steering shaft.

Abstract: The invention provides an energy absorbing apparatus for a steering column. The energy absorbing apparatus includes a first member having a telescoping end and a side wall. The energy absorbing apparatus also includes a second member having a telescoping end and a side wall. The second member is disposed for collapsing telescoping movement with the first member. The energy absorbing apparatus also includes a bushing extending annularly between the first member and the second member. The bushing is fixed to one of the first member and the second member. The energy absorbing apparatus also includes at least one projection integrally formed with the bushing and extending longitudinally and radially along the side wall of the one of the first member and the second member.