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• Posted by Dani Bogdan January 18, 2023 - Filed in Technology - #cmm inspection services  - 560 views

  According to recent statements made by the company, an upgrade to the XM series of manual coordinate measuring machines (CMM) manufactured by Keyence is now available for purchase. The coordinate measuring machine (CMM) that has been redesigned and is now called the XM-200 comes with a brand-new, more practical probe that has three rows of LED markers at three different stepped height differences. Both the stability of the system and the accuracy of the measurements achieved are enhanced as a result of this.

   

  The latest and most convenient probe comes equipped with an ergonomically designed grip, an integrated camera, and an LED that confirms its status. In addition to these other characteristics, it is constructed out of an oil-resistant PBT resin. As a component of the measuring system, a camera with an exceptionally high level of dependability is utilized. This camera makes use of cutting-edge technology in order to capture the near-field light that is emitted by the 12 markers. By using the coordinate data that is obtained from each marker, the machine is able to ascertain both the spatial location of the probe as well as the orientation of the probe. This is done by determining the position of the probe in space. As a result of the increase in the number of markers (the previous model only had seven), the probe is now able to measure with greater dexterity, which enables the measurement of feature points from any probe angle. On the previous model, there were only seven markers.
  
  

  With the introduction of the XM Series of bench-top coordinate measuring machines (CMMs), which featured a hand-held probe, Keyence was the first company to pioneer a new concept in the field of manual coordinate metrology. In order to perform repeated inspections, the user need only make contact with the component using the probe stylus while simultaneously following the augmented reality guidance that is displayed on the screen of the system. The XM-200 is able to measure intricate shapes and geometric features by employing a simple software concept that enables anyone to begin measuring right away. This makes the XM-200 ideal for industrial and architectural applications. The software has the capability of capturing the image that is being projected by the integral camera that is mounted on the tip of the probe. This image can then be used to guide the user through subsequent measurements. The measurement location, the element name, and the measurement result are all displayed concurrently in the composite image. Because of this, even individuals who are not very experienced with CMM are able to comprehend where they are measuring and what it is that they are measuring.
  
  Measurements are able to be taken on the production floor thanks to a function called temperature compensation, which makes it possible to do so even in temperature environments that are not perfectly controlled.
  
  With the help of the CAD comparison software module, which can be purchased as an optional add-on, direct measurements can be taken against nominal CAD data, and the software will display deviations so that comparative measurements can be performed. To capture free-form surfaces, compare them, or export them, all that is required is to trace the probe style over the surface of the part. Additionally, the geometric tolerance of the 3D contours will be reported after this step has been completed.
  
  An Overview of the Recently Adopted ISO Form StandardsThe following is an example of what the future might look like:
  
  Because of these standards, the approaches that some companies take to specify, measure, and manufacture components might have to undergo significant change. In August of 2011, I gave a presentation to our sales team about how we had incorporated the new ISO Geometrical Product Specifications into the operating software for all of our form tester products. The topic of the presentation was how we had completed the cmm services of incorporating these new standards. The presentation's objective was to show how we had been successful in meeting the requirements of the new standards, and that was its primary focus. The presentation seemed to go off without a hitch to me; I was clear and precise, and the material wasn't all that challenging to grasp. My expectation was that we would have a positive attitude toward the newly accessible personalization options provided by the software. Nonetheless, when it came time to wrap things up, cmm services there were a few of the participants who seemed confused. The topic was summed up by one of the participants who asked, "Yeah, but what are these new standards good for?"Who exactly is going to put them to use?
  
  Not only is it an intriguing line of inquiry, but it also happens to be a very important one. In order for us to comprehend this, we need to first comprehend the logic that lies behind these new standards and the new parameters that they make available to us for our utilization. Only then will we be able to comprehend what is being discussed here. In point of fact, getting a grasp on these criteria requires putting an emphasis on the word opportunity in its literal sense. Because of these standards, we are now able to specify form tolerances on parts in novel ways, which could be beneficial to the manner in which a component performs the function for which it was designed. The newly established ISO standards for roundness (12181) and cylinderricity (12180) as well as straightness (12780) and flatness (12781) can be interpreted as laying the groundwork for further technological advancement. Roundness (12181) and cylinderricity (12180)They are the culmination of many years' worth of debate, and the new window that they create for form specifications has the potential to have significant repercussions for the way in which certain businesses specify, measure, and manufacture parts. They have been discussed for many years.
  
  Post-Pandemic Manufacturing Is Being Revolutionized Through the Use of Real-Time Location Systems
  
  You might be familiar with Real-Time Location Systems (RTLS), but many executives in charge of businesses are still clueless about the benefits that can be gained from utilizing these systems. As the year 2023 draws ever nearer, cmm inspection services  it is becoming increasingly clear that real-time location systems are the vanguard of the Industry 4.0 revolution. This realization comes as we move ever closer to the year 2023. These systems are not only making a wide variety of manufacturing processes more effective than they have ever been, but they are also helping to mitigate the supply chain and logistics issues that have arisen as a result of the global pandemic. These issues have arisen because of the global pandemic. In a nutshell, real-time location systems (RTLS) have emerged as the industrial sector's new best friend.
  
  Exactly what does an RTLS stand for?
  
  Many people believe that real-time location systems (RTLS) can trace their roots back to the 1970s and the NASA moon missions. Real-time location systems (RTLS) have been around for more than twenty years, albeit in a variety of different forms. There has been a significant increase in the adoption of RTLS, particularly in the aerospace, automotive, and transit industries, since IoT devices began becoming more commonplace in 2017. This increase has been accompanied by an increase in the use of RTLS. Monitoring of complicated processes can be made much simpler with the help of systems that are able to cmm inspection services large amounts of data and create visual representations of actual production lines and industrial spaces. The application of predictive analytics not only enables businesses to anticipate the occurrence of potential problems in their operations and take the necessary precautions, but it also paves the way for the automation of tasks that were previously dependent on the efforts of human workers. They are even tracking the locations of employees while they are in potentially hazardous environments in order to make the working environment safer. This is one of the steps that they are taking to make the working environment safer. The question now is, how do they manage to pull off such a trick?