Abstract: A system for positioning a workpiece in an optimized position. In one embodiment a marking device places a mark on the workpiece prior to the workpiece passing through a scanner cooperating with an optimizer. The optimizer determines the optimized position of the workpiece. The orientation of the workpiece is identified by a first camera. The mark may be used as a point of reference such that the workpiece may be positioned in the optimized position by rotating the workpiece relative to the orientation of the mark. A turning mechanism rotates the workpiece to position it in the optimized position. A further camera identifies the orientation of the mark while the workpiece is being rotated. A processor compares in real time the orientation of the workpiece with the optimized position to determine if the workpiece is in the optimized position.

Abstract: A cant turner has several discrete laterally aligned cant turning stations spaced laterally across the width of a transfer. At each station the turner has two arms that rotate independently about a corresponding shaft. The arms can be selectively oriented in-line with each other or can be set to be at an angle, for example ninety degrees to each other. When in-line and horizontal, the arms allow a cant to pass over the laterally aligned stations without interruption. When one of the arms is elevated, for example, vertically, that arm acts as a hook stop and stops cants from further translation downstream. With a cant stopped against an elevated arm, when both arms rotate in unison the cant may be forwardly turned ninety degrees and allowed to progress down the transfer.