The Benefits of Additive Layer Manufacturing in the Defense Industry

Aerospace and Defense Review | Monday, April 04, 2022

ALM is seen by the defense and other advanced industries to minimize costs and lead times while enhancing the efficiency of their goods and supply chains.

Fremont, CA: Additive Layer Manufacturing (ALM) or 3D-printing is known as groundbreaking technology that can significantly improve the defense industry’s operations and military capabilities. Along with a range of other advances (unmanned and autonomous robotic systems, cyber capabilities, data mining, targeted energy weapons, and human performance modification), ALM is expected to change the fight.

Fit for Small and Customized Production

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Small or one-off” production with ALM is cheaper than with conventional methods. Since there are no economies of scale on the manufacturing side, standardization is no longer a requirement.

The simplicity of design, too, is no longer needed to comply with economic constraints. ALM’s highly complex parts are feasible, faster, and require less material to enhance engineers’ imagination and product efficiency.

Quick Development and Reactivity

ALM can have a fundamental effect on the defense industrial base by accelerating the transition rate from the prototype to production. “Agile” assembly lines and shorter lead times for design changes would give military technology a competitive advantage.

On-demand additive manufacturing increases supply chain responsiveness and decreastop unmanned system companieses inventory, obsolescence risks, and overall costs. Scalability adds to the response. If there is a sudden need to double the output volume, the addition and plugging of ALM machines would easily increase the capacity.

See Also: Top Drone Tech Solution Companies

Pairing 3D-Printing and Printable Electronics

Among military applications, unmanned aircraft systems (UAS) – also known as “drones” – can gain most from printable electronics. They are low-volume development units, likely to be tailored to meet the requirements of the missions. ALM and lightweight design allow UAS to operate on longer flights and broader ranges.

UAS can already take advantage of ALM to some degree. For example, ALM encourages light-weighting through lattice structuring design or topological optimization. It allows the UAS to carry out longer flights and operate in more comprehensive ranges.

Printing and customizing UAS on-site would lead to more functional and cheaper mission-specific vehicles available on the war scene.

Advantages of “Near-The-Battlefield” Production

In military operations, ALM enables small-scale production of powerful platforms to be readily available to armed forces. “Mobile Labs” are stationed in combat camps to produce fast parts for the surrounding battlefield.

If technology matures further in multi-material deposition and adaptive material solutions, the parts could be printed in situ from available materials. Self-sufficiency is undoubtedly a tactical advantage in the military.

It makes sense to put ALM closer to the frontline during the war. By promoting a closer connection of military field experience with engineers’ technological skills, ALM may make a real contribution to preserving the superiority of military equipment. After the battle, ALM will significantly assist local communities and promote disaster relief or restoration by printing personalized parts and maintaining strategic equipment.

Top Cryogenics Companies : ( Renaissance Scientific, Empire Magnetics, Cryogenic Systems and Parts )

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