Locanam 3D Printing

  Design for Additive Manufacturing (DfAM)  is the methodology of creating, optimizing, or adapting the form and function of a part, assembly, or product to take full advantage of the benefits of additive manufacturing processes. DfAM is a complex topic and a hot research area. While the basic concepts are easy to understand, their implementation can be challenging to master. The state-of-the-art and best practices are constantly evolving as the capabilities of additive technologies (and engineering design software) continue to advance. Zoom image Additive manufacturing technologies give you enormous design freedom. By applying proper design rules, you can minimize the risk of errors occurring. At its core, DfAM centers around exploiting a few key traits unique to 3D printing. Increased complexity does not equal increased cost.  This benefit gives a considerable advantage over traditional manufacturing technologies for design optimization. The total cost of production does not change s

Fused Deposition Modeling (FDM), also known as 3D printing, is an additive manufacturing process that stands in contrast to subtractive methods like machining, which involves removing material to create objects. FDM's additive approach, coupled with soluble support material, facilitates the fabrication of parts with intricate geometries and internal cavities. The technology utilizes production-grade materials that are both mechanically and environmentally stable, contributing to its cleanliness and suitability for office environments. FDM thermoplastics exhibit properties essential for applications requiring precise tolerances, durability, and stability in diverse environments, often overlapping with those used in traditional manufacturing methods like injection molding. Benefits of Fused Deposition Modeling (FDM) Technology: Stratasys FDM technology presents significant advantages over conventional manufacturing methods, enabling cost reductions and faster market entry due to shor