Some Points You Should Know About FDM 3D Printing

Fused Deposition Modeling (FDM) is among the most commonly used and versatile 3D printing technologies. It works by building parts from an extruded plastic filament material through a nozzle, and then laying that plastic down on the build chamber layer per layer. FDM 3D printing can create complex geometries, but there are restrictions in the process that requires support material for any overhanging features. That said, the supports are removed post-process. Read on to learn more about this additive manufacturing method:

 

Different materials available

 

Fused deposition modeling FDM can print in a wide variety of materials. The selection typically includes PC and ABS plastics, as well as performance materials like nylon and Ultem. That makes the process versatile for building a wide range of prototypes and for low volume production of objects and parts like enclosures, housings, and functional bits.

 

Efficient and cost-effective

 

As FDM 3D printing is widely available, it is typically considered cheap, while being able to efficiently produce high-quality results. The process can also be scaled, so it should suit most types and sizes of projects. Only the movement of every gantry is considered the main constraint in the build area’s size. By lengthening the gantry rails, the build area can be bigger.

 

How it differs from other 3D printing technologies

 

Rapid prototyping service providers offer a wide range of 3D printing technologies. Besides fused deposition modeling FDM, they provide SLA 3D printing, which cures liquid resin with a highly precise laser to create a part one layer at a time. If your project does not have any fine or intricate details and it won’t be used for manufacturing or engineering applications that emphasize the importance of material properties, FDM 3D printing can be a good choice. Otherwise, you might want to consider SLA 3D printing.

 

It struggles to print holes

 

Does your project have holes? FDM tends to print them smaller by around two to four percent. So, you will have to design them slightly larger, or you ask the manufacturer to drill to size at post-processing. They can also install inserts for any holes.

 

 

 

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