In the automotive industry, quality control/assurance has often focused on the physical testing and evaluation of raw materials and finished products. From a safety perspective, it is imperative that the strength of these materials and products meets established standards. Tensile, compression, bending and hardness tests are used for these evaluations.

If you’re not sure how to inspect components for E-mobility applications, there are a range of tools at the ready. As the world of electric vehicles continues to expand, technologies such as computed tomography, coordinate measuring machines, and microscopes all provide part of the puzzle.

With conventional machining of metal component parts, the interior structures are often taken for granted as solid, leaving little room for doubt about the internal quality. With additive manufacturing (AM), however, the part isn’t affected by welding or machining but rather by the quality of powder used in the material and how it spreads or layers during the build process.

Additive manufacturing (AM), the 3D printing process, is increasingly important in the production of complex, high-value, critical parts with potential applications in the medical technology, aerospace and automotive industries. 

Two-dimensional and 3D X-ray technologies are among the most useful nondestructive testing methods. They enable the inspection of an object’s internal features without having to disassemble the sample or destroy the part in the process. 

With more than a billion bicycles thought to be in existence (more than double the number of automobiles), it’s safe to say that a lot of people enjoy cycling.

The medical industry is one of the fastest growing industries in the world today, with the U.S reaching a market cap of $156 billion.

Additive manufacturing (AM) is everywhere and anywhere nowadays. Every day technical websites, and even most social media sites, are posting cool videos and new applications. 

Computed tomography (CT) uses irradiation to produce 3D internal and external representations of scanned objects. The beginnings of CT scanning technology date back to the early 1970s. Although it was originally developed for medical imaging, CT is now used in a wide array of industrial applications including flaw detection, failure analysis, metrology, assembly analysis and reverse engineering.

Computed tomography (CT) scanning is one of the most advanced measurement technologies available today for medical device manufacturers and molders.