Abstract: A device, system, and method for generating low clearance slidably mated parts. In an exemplary embodiment, the system includes a measurement device having a non-contact micrometer capable of coincidentally indicating opposing edge data, rotational and linear air bearing slides, and a holding device. The non-contact micrometer allows for measurement of a plurality of parameters of a first part including the diameter and the difference between an edge of the first part and a reference point. The coincidental measurements are used to determine the size and geometric errors associated with the first part after suitable error elimination. In an exemplary system, a processing machine may be instructed by the measurement device to remove material from a second part so that the first part and the second part when mated together have a very low clearance tolerance level, e.g., as little as 0.00005 inches or less.

Abstract: A device, system, and method for generating low clearance slidably mated parts. In an exemplary embodiment, the system includes a measurement device having a non-contact micrometer capable of coincidentally indicating opposing edge data, rotational and linear air bearing slides, and a holding device. The non-contact micrometer allows for measurement of a plurality of parameters of a first part including the diameter and the difference between an edge of the first part and a reference point. The coincidental measurements are used to determine the size and geometric errors associated with the first part after suitable error elimination. In an exemplary system, a processing machine may be instructed by the measurement device to remove material from a second part so that the first part and the second part when mated together have a very low clearance tolerance level, e.g., as little as 0.00005 inches or less.

Abstract: A device, system, and method for generating low clearance slidably mated parts. In an exemplary embodiment, the system includes a measurement device having a non-contact micrometer capable of coincidentally indicating opposing edge data, rotational and linear air bearing slides, and a holding device. The non-contact micrometer allows for measurement of a plurality of parameters of a first part including the diameter and the difference between an edge of the first part and a reference point. The coincidental measurements are used to determine the size and geometric errors associated with the first part after suitable error elimination. In an exemplary system, a processing machine may be instructed by the measurement device to remove material from a second part so that the first part and the second part when mated together have a very low clearance tolerance level, e.g., as little as 0.00005 inches or less.

Abstract: A technique for marking pixels on workpieces by routing a scanned beam to different marking stations to mark individual pixels on the workpieces. A diffractive scan lens focuses the beam. A mark is formed on a workpiece by producing the mark and curing the mark. Angular position of a scanning mirror in a raster scanner is determined by moving a beam, reflected from the scanner, across rulings on an optical element during scanning. A print head for printing spots on a surface of a workpiece has a walled, internally pressurized chamber and structure for causing an inked web to conform to a contour of the chamber wall and to be pulled along the chamber wall. A print head has a compliant-walled, internally pressurized chamber. A print head has a chamber having a low-coefficient of friction coating. Two workpieces may be marked at two marking stations by two-directional scanning.

Abstract: A technique for marking pixels on workpieces by routing a scanned beam to different marking stations to mark individual pixels on the workpieces. A diffractive scan lens focuses the beam. A mark is formed on a workpiece by producing the mark and curing the mark. Angular position of a scanning mirror in a raster scanner is determined by moving a beam, reflected from the scanner, across rulings on an optical element during scanning. A print head for printing spots on a surface of a workpiece has a walled, internally pressurized chamber and structure for causing an inked web to conform to a contour of the chamber wall and to be pulled along the chamber wall. A print head has a compliant-walled, internally pressurized chamber. A print head has a chamber having a low-coefficient of friction coating. Two workpieces may be marked at two marking stations by two-directional scanning.