How can aerospace parts manufacturers meet demands for lightweight, precise parts and components that are durable and temperature-resistant while complying with stringent regulatory requirements? High-quality aerospace parts need high-quality industrial metrology solutions.
Dealing with supply chain issues – lead times of more than a year for some components – means that the company has had to raise levels of inventory, not an ideal situation, but they’ve been able to adapt through it all.
Reverse engineering as a term is adopted by many industry subsets. From genetics, computer code, complex PCBs (printed circuit boards), and even military espionage. In this article, we are specifically relating to a metrology-driven process steered by high-precision 3D data acquisition tools.
Quality management systems have been around for many years now, but you might ask yourself, why set out to comply with a written standard, and why be certified?
Leak testing helps manufacturers boost quality without unnecessary costs. It enables them to improve their production process, ensuring efficient assembly and minimizes scrap, delays, and cycle times.
Your company finally received that long-anticipated order for additive manufactured parts. Those parts are processed in record time and the order is promptly fulfilled. A week later … your worst nightmare comes true.
For as long as there has been commercial and military flight, aircraft component suppliers have been charged with providing dimensional and process control-related data.
No matter what manufacturing method is used in the creation of aerospace parts, CT scanning can nondestructively provide a wealth of highly useful information about any product’s integrity.
In aerospace, a defect, mismeasurement, or slight error can be the difference between a successful launch and mission failure. It’s because of this that aerospace companies have the most stringent requirements for quality and dimensional accuracy.
X-ray fluorescence (XRF) spectrometry is a useful technology to measure the thickness of metal layers. Handheld XRF is an indispensable tool in quality assurance.
Since the development of eddy current testing in the early to mid-1900s this method has been used to detect defects and properties of many types of metals. The most common applications are testing tubular products for transverse defects, testing bar or wire products for longitudinal surface defects, and testing parts for defects and properties such as hardness.