Force measurement devices like load cells, torque transducers and data acquisition devices are used across industries to design and test hardware. 

When Wilhelm Rontgen discovered X-rays in the 1890s, he almost immediately discovered the imaging applications of this hitherto-unknown type of radiation, and experts in the medical community and the industrial nondestructive testing community rapidly seized on the potential this new science of radiography offered.

Toward the end of this decade, our industry will realize a full century since the inception of the magnetic particle inspection method.

Since the rise of additive manufacturing (AM) in the 2010s, many businesses across the world are now looking at this method of manufacturing to see where it can add benefits across the supply chain.

Medical devices, both the actual equipment and patient hardware, are some of the most regulated items in all of industry. Medical manufacturers are held to the highest of standards and these typically equal, and can even exceed, the aerospace and nuclear sectors.

The technology of nondestructive testing has experienced phenomenal growth over the past two decades and it is expected that this growth will continue for the foreseeable future. 

Helium is in short supply and its cost is rising. Global sources may even run dry by the end of the century. And yet, it remains the dominant choice for trace-gas-based leak-testing on the production line. How can you make the most of this increasingly precious commodity for your critical quality assurance needs?

Since the early 1990s Lithium ion batteries have entered industrial markets as energy storage technology for mobile consumer electronics and battery-operated tools.

X-ray diffraction (XRD) is a nondestructive testing method that has been around for over 100 years. It is used in many industries and it has several specific applications that are very critical. So, what is it and how does it work?

Radiographs have been interpreted since Wilhelm Conrad Roentgen first observed the X-ray of his wife’s hand back in 1896. The process of radiographic interpretation consists of many variables with the major objective being achieving the highest possible quality level or sensitivity.