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INSTRUMENTATION ELECTRONICS The de-skilled nature of the process


also helps reduce costs. Not needing to have an employee standby and assess each product nor operate the machine reduces costs and increases efficiency. The only labour required is moving parts on and off the field of view platform. In-built to the machine is the software


that allows the deskilled operation. It can detect parts that have been placed onto the stage, going through its library to identify parts and then assess them. A scan of parts needs to be uploaded to the machines library to do this, but once uploaded the machine can accurately detect parts and complete quality assurance checks. If multiple fields of view are


required for a reading, the stage is required to stitch together the data, however, if only one field of view is required for inspection then it is possible to attach a conveyor belt to the operation.


ROTARY VIEW Full scans are possible using the FV3020, and this is what the optional additional rotary is for. Multifaceted


The FV3020 can be fitted with a rotary axis for increased automation


scans can be taken per rotation to build an accurate image of the piece. The stage can use different lighting


to highlight different features of the part, allowing more accurate measurements to be taken. This can be done whilst the rotary part is in action, allowing silhouette to help create measurements. CNC rotary indexing is enabled via the rotary axis, allowing automated inspection programs to operate on cylindrical parts.


The Baty Venture FV series is designed for control and quality checks


parts can be scanned using the rotary attachment, allowing multiple sides of a part to be shown to the optic for inspection. This allows the process to be automated rather than an employee changing the rotation of the part after every scan. 3D parts can be scanned in using


the rotary option, allowing one inspection shot to collect all the necessary data without constant repositioning from a user. This remains a deskilled process. Multiple


CONFOCAL PRO An additional optional confocal pro laser probe, the SB-FVHPS-1, can be added to the FV3020 granting the machine Z-axis measurement capabilities. This can be used to assess pocket heights. The laser is focused at a certain


working height, shooting out a 65-micron diameter micron spot. A range of surfaces work with the laser, including transparent materials, giving it an advantage over traditional touch probes. It boasts an accuracy of 2.5 microns. In addition to the stage lighting, the


confocal laser is working underneath the rotary to measure points to assess flatness of the part. It is well suited to assessing surface height, flatness, and thickness. The confocal laser enables 3D functionality on an otherwise 2D scanner, providing additional Z-axis measurements in detail to go along with the XY measurements taken from the camera lens. Data is captured from both the top and bottom surfaces by the probe, allowing it to assess thickness in a single measurement. This makes it a versatile solution for a range of measurements.


ASSESSING PROGRESS As technology becomes more advanced and machinery becomes more intricate, the need to correctly assess parts is becoming ever more important. Progress cannot be made unless what we are producing is functional. Investing in quality assurance


can help prevent future errors, breakdowns, bottlenecks, and lead to more reliable machinery. Reduction in human involvement will not only reduce costs but can also take human error out of the equation.


26 www.engineerlive.com


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