We’re happy to introduce VisionGauge®’s Patent Pending “Tooth Checker™” tool, specially adapted to check parts with teeth. This innovative new tool automatically locates, to very high accuracy, the crests and / or roots of the teeth and determines if they are within their tolerance band. It can also determine all other part characteristics, such as tooth pitch, thread depth, major & minor diameters, etc…
The Tooth Checker tool can verify that either crests, roots, or both, are in tolerance, using these crest & root points that the Tooth Checker tool has found, it can then automatically determine all other part characteristics:
This powerful new tool is perfect for quickly and accurately checking:
The VisionGauge® Digital Optical Comparator’s new “Min/Max” software tool is the perfect solution for automatically aligning a part using a rotary stage. The tool can be setup to rotate the part and find the position that either minimizes or maximizes a dimension.
Common examples include the following:
With this new Min/Max tool, it’s extremely easy to setup an automated routine for the alignment of any kind of part. Also, results are extremely repeatable. This advanced tool uses high-order interpolation for very accurate subsampling. This means that the position of best alignment can be found very accurately, at any orientation (not just at the sampled orientations).
This new tool is completely integrated with all of the VisionGauge® Digital Optical Comparator’s other tools so that all of its results can easily be recoded, transmitted, databased, sent to Excel™ or any other data capture application, put in a report, etc…
This new Min/Max tool further increases the wide range of applications that can easily and reliably be solved using the VisionGauge® Digital Optical Comparator.
To be able to report the absolute location of a feature (such as cooling holes) on a part, a measurement system needs to know the location of the datums relative to which these locations are expressed. Five-axis parts use a six-point datum structure to set the position along the three Cartesian axes as well as the rotation about each of these three axes.
There are two different approaches to establish these datums. The first approach consists in using a fixture that physically comes into contact with the six datum points. And because the fixture is generally designed to easily line up with the un-rotated Cartesian axes (along the fixture’s straight edges, for example or using locator holes, tooling balls or other appropriately-designed simple features), it is quite simple to “zero out” the system’s 5 axes of motion (i.e. X, Y, Z, A and B). So with this first approach, the fixture physically sets the location of the datums in space.
With the second approach, a generally simpler fixture is used to only roughly position the part. So with this approach, features on the fixture are still used to “zero out” the system’s 5 axes of motion, but the resulting coordinate system is only approximate. For every part, the system still needs to accurately locate the datums and mathematically re-orient the part (in a way analogous to how a physical 6-point fixture physically reorients the part in space).
The VisionGauge® Digital Optical Comparator’s “Part Reorientation” tool is a powerful and intuitive tool to carry out 6-point iterative alignment. It uses the 700 Series’ LASER module to accurately locate the part’s surface at the datums, even on parts with complex geometries. The tool converges quickly to a stable and accurate solution. And it is extremely simple to then apply the corrections to part inspection programs. The tool also allows you to set limits on the corrections (to ensure collision-avoidance, for example).