Device comprising two hinged elements (1, 2) capable of adopting an angle of misalignement in relation to one another in the same plane designated as the plane of displacement.

The device is characterized by a ball and socket type articulation (3), planar guiding means (4) and means for controlling the misalignement angle which includes an eccentric (5), the position of which determines said misalignement angle.

The wedge angles of said gaps correspond to the admissible initial misaligment angle of the bearing race.

The misalignment valve may be used to correct the first heading angle and the process repeated iteratively.

For each identified jog, the surrounding region is examined to determine if there is an opposing jog or parallel edge that can be aligned with the identified jog.

A first deskew process is performed, followed by a second deskew process.

An amount of swath skew is determined, and gross and/or fine skew adjustments are applied to reduce the swath skew to visually imperceptible limits.

The deskewer provides a simple, open-loop circuit for eliminating skew between parallel transmission paths.

The misalignment tolerant line compensates for the misalignment gap and thereby prevents etching a trench in the contact element.

There is described a de-skew circuit and a method of de-skewing a multi lane serial interface.

The de-skewer is ideally suited for eliminating skew from sources which do not vary significantly as a function of time.

The SSM byte is transmitted on each data channel and terminates the skew compensation procedure.

Provided is a winding misalignment adjustment member that can easily carry out the task of adjusting screen misalignment.

The extreme skewing reduces the peak currents.

The method may also include calculating a second heading value from the images and from that a misalignment valve indicative of the alignment of the camera from some datum.