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AML3D Created the Largest, Verified Oil & Gas Piping Component Using 3D Printing
Additive manufacturing in the oil & gas industry is continuing to grow. AML3D has announced that they have made the largest, verified, metal oil & gas high-pressure piping component using 3D printing. It was created using AML3D’s Wire Additive Manufacturing…
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Additive manufacturing in the oil & gas industry is continuing to grow. AML3D has announced that they have made the largest, verified, metal oil & gas high-pressure piping component using 3D printing. It was created using AML3D’s Wire Additive Manufacturing (WAM®) process which has can also be used for applications in Aerospace, Defence, Maritime, Manufacturing, Mining and more. Additionally, the was made in accordance with strict safety considerations, notably meeting the highest American standards for parts in the industry.
The announcement of this comes a mere few weeks after MX3D used its own DED-derived technology, WAAM (Wire Arc Additive Manufacturing), to create a safety critical part for the oil & gas industry. Also verified by Lloyd’s, the clamping part was created using a hybrid approach and was hoped to decrease environmental, human and safety risks. This shows the increased importance of AM in areas like oil & gas and notably in subsea applications. AM has found a home in the sector as it allows users to quickly make complex parts.

WAM® DN400 to DN300, Schedule 160 reducing spool undergoing testing with TruShape, witnessed and verified by Lloyds Register (photo credits: AML3D)
What do we know about the 3D printed, oil & gas part from AML3D?
The part was made using AML3D’s patented WAM process which combines combines an electric arc with certified welding wire in a Directed Energy Deposition (DED) process. According to the company, it is notably as it can be used to print large metal parts an open free-form fabrication environment using localised inert gas, eliminating the need for a chamber. The high-pressure component was printed in one piece and showed improved material properties and was manufactured in significantly less time than traditional methods.





