Achieving optimal part quality in additive manufacturing material extrusion often hinges on factors beyond mere geometry and material selection. One such critical aspect is the controlled thermal environment provided by heated chambers, particularly when working with advanced materials like super polymers.
Reliability and performance are paramount in defense and 3D printing has emerged as a transformative technology. The successful implementation of this technology hinges on several critical factors, with chamber size and temperature control standing out as particularly crucial to blend 3D printing into established manufacturing processes.
When it comes to 3D printing for defense applications, material selection is paramount. The ability to choose the right filament is crucial for producing parts that meet the stringent requirements of military operations and lasts.
Welcome to our blog! In this post, we will delve into a crucial aspect of achieving optimal results in material extrusion 3D printing: the importance of drying filament, especially when working with engineering high-temperature polymers. We will explore the benefits of filament drying and share valuable insights on how to reduce costs along the way.
Building upon our commitment to safety-first innovation in regulated markets, Omni3D’s industrial extrusion 3D printing technology is taking flight in the demanding world of aerospace. This blog entry, a continuation of our exploration of 3D printing within highly regulated industries, dives deeper into the specific considerations and exciting possibilities for large-format material extrusion within the aerospace sector.
In the realm of large-format industrial 3D printing, achieving optimal part quality demands meticulous attention to every stage of the process. While the excitement often lies in the creation of complex geometries, in industrial applications the often-overlooked cooling phase is paramount for ensuring dimensional accuracy, mechanical properties, and overall part performance.
