Plant engineers and quality departments often struggle with zero point drift during air leak testing, where the initial zero reading shifts over time, leading to frequent adjustments of the leak test instrument. This article addresses the causes of zero drift, commonly attributed to changes in shop floor temperature, and provides strategies to minimize or eliminate this issue for improved efficiency in quality control processes.
As 3D printing continues to take off and parts are used in more unique ways to solve complex problems, it’s likely that quality requirements will only become stricter.
3D printing is a revolutionary technology that enables the creation of intricate and complex designs by adding material layer by layer. The final surface roughness of the printed part is critical to its overall performance and can have a major impact on its functionality.
The integration of 3D scanning and additive manufacturing has opened new possibilities in metrology. Analyzing the technical intricacies of 3D laser scanning hardware and software reveals their pivotal role in shaping engineering's future.
3D printing, or additive manufacturing (AM), revolutionizes part production by building them layer by layer from base materials, unlike traditional subtractive methods. In this article, we'll delve into the complexities of additive manufacturing inspection, highlighting the unique nuances of AM-produced parts.
Accelerated weathering instruments are designed to reproduce the stress and damages caused by sunlight, heat, and water (rain/dew). Typically, testing can reproduce within weeks the damage that occurs over months or years.
The automation of materials testing has been an evolutionary process. The task of automatically feeding standard specimens into universal testing machines has been in place for decades—at least as far back as the 1980s.
As businesses constantly refine their methods and gather data from various tools to get a clearer picture of how products move, they are increasingly reliant on automation.