Abstract: Improved component placement inspection and verification is performed by a pick and place machine. Improvements include stereovision imaging of the intended placement location; enhanced illumination to facilitate the provision of relatively high-power illumination in the restricted space near the placement nozzle(s); optics to allow image acquisition device to view the placement location from an angle relative to a plane of the placement location, thereby reducing the possibility of such images being obstructed by the component; techniques for rapidly acquiring images with commercially available CCD arrays such that acquisition of before and after images does not substantially impact system throughput; and image processing techniques to provide component inspection and verification information.

Abstract: Improved component placement inspection and verification is performed by a pick and place machine. Improvements include stereovision imaging of the intended placement location; enhanced illumination to facilitate the provision of relatively high-power illumination in the restricted space near the placement nozzle(s); optics to allow image acquisition device to view the placement location from an angle relative to a plane of the placement location, thereby reducing the possibility of such images being obstructed by the component; techniques for rapidly acquiring images with commercially available CCD arrays such that acquisition of before and after images does not substantially impact system throughput; and image processing techniques to provide component inspection and verification information.

Abstract: Improved component placement inspection and verification is performed by a pick and place machine. Improvements include stereovision imaging of the intended placement location; enhanced illumination to facilitate the provision of relatively high-power illumination in the restricted space near the placement nozzle(s); optics to allow image acquisition device to view the placement location from an angle relative to a plane of the placement location, thereby reducing the possibility of such images being obstructed by the component; techniques for rapidly acquiring images with commercially available CCD arrays such that acquisition of before and after images does not substantially impact system throughput; and image processing techniques to provide component inspection and verification information.

Abstract: A thru-hull cap cover for a watercraft thru-hull and method therefor capable of covering and protecting the exposed exterior end of a thru-hull from the elements, thus reducing the need to replace a watercraft thru-hull.

Abstract: Embodiments of the present invention improve upon component level inspection performed by pick and place machines. Such improvements include providing first article inspection in pick and place machines by collecting images of the placement event inside the machine and identifying errors as they happen. By displaying this information as it is generated on the machine, the operator can take prompt and effective corrective actions. In one embodiment, images are taken of the placement location before and after placement of the component. These images are then processed and displayed to the operator shortly after the placement has completed. In addition to the images, key measurements are displayed to the operator to assist in the diagnosis of problems as they occur. Key features that are presented to the operator include absence/presence detection, vibration detection and manual visual inspection.

Abstract: A thru-hull cap cover for a watercraft thru-hull and method therefor capable of covering and protecting the exposed exterior end of a thru-hull from the elements, thus reducing the need to replace a watercraft thru-hull.

Abstract: Embodiments of the present invention improve upon component level inspection performed by pick and place machines. Such improvements include inspecting the pick operation in pick and place machines by collecting images of the pick event inside the machine and identifying errors as they happen. By detecting and displaying this information as it generated on the machine, the operator or machine can take prompt and effective corrective actions.

Abstract: Embodiments of the present invention provide correlation between positional information relative to the workpiece and inspection information acquired relative to the workpiece. This correlation helps a user or technician quickly identify the physical location, on the workpiece, to which the inspection information pertains. Component inspection information can then be provided to an operator along with an indication of a position of the inspected component on the workpiece.

Abstract: Embodiments of the present invention improve upon component level inspection performed by pick and place machines. Such improvements include providing first article inspection in pick and place machines by collecting images of the placement event inside the machine and identifying errors as they happen. By displaying this information as it is generated on the machine, the operator can take prompt and effective corrective actions. In one embodiment, images are taken of the placement location before and after placement of the component. These images are then processed and displayed to the operator shortly after the placement has completed. In addition to the images, key measurements are displayed to the operator to assist in the diagnosis of problems as they occur. Key features that are presented to the operator include absence/presence detection, vibration detection and manual visual inspection.

Abstract: Embodiments of the present invention improve upon component level inspection performed by pick and place machines. Such improvements include measuring the travel of a pick and place machine placement nozzle and the motion characteristics of the workpiece through the placement process. Since the component is placed on the workpiece with some force to ensure proper adhesion to the workpiece, some deflection of the workpiece is expected during the placement cycle. The placement force is adjusted to ensure that the component is safely placed into the solder paste or adhesive. Placement force is adjusted through a number of characteristics including: choice of spring tension in the nozzle; the length of the nozzle and the amount of over-travel into the board; the rigidity of the board and design; and the placement of the board support mechanisms. With proper adjustment of these characteristics and parameters, high quality placements onto the workpiece can be ensured.