Our FDM 3D Printing Services
Our global network of certified FDM 3D printing manufacturing partners will help you make low-cost prototypes quickly so you can test your designs. Just upload your parts, get a quote, and in less than 12 hours you can start making them.
What is FDM 3D Printing?
In FDM, the raw material filament is continuously fed into the extrusion head of the heating nozzle to melt it and extrude it evenly. The printer moves the extrusion head according to the movement track formed by the three-dimensional model slice, and places the molten material at the precise position. and cool and solidify there. When a layer is complete, the build platform moves down and the process repeats until the part is complete.
After printing, parts are usually ready to use, but may require some post-processing, such as removal of support structures or surface smoothing.
Advantages of FDM 3D Printing
Fused deposition modeling can create complex parts from plastic stock. However, they are anisotropic in the z-direction (vertical direction) and have a stepped structure on the surface. Fused deposition modeling works with standard materials such as ABS/PA/PC. Therefore, the parts have good mechanical properties and are durable. Parts can be post-processed like any plastic part produced by conventional manufacturing.
Fused Deposition Modeling (FDM) is a 3D printing technology known for its speed, precision and competitive cost. FDM machines precisely extrude molten plastic filaments to create parts. FDM parts can be manufactured in as little as a day.
Why Choose FDM 3D Printing Service
Gallery of FDM 3D Printed Parts
FDM 3D Printing Capabilities
| Requirement | Desktop FDM | Industrial FDM |
|---|---|---|
| Maximum build size | 500 x 500 x 500 mm (19.68″ x 19.68″ x 19.68″) | 406 x 355 x 406 mm* (15.98 x 13.97 x 15.98″) |
| Standard lead time | 2 business days | 3 business days |
| Dimensional accuracy | ± 0.5% with a lower limit on ± 0.5 mm (0.0196″) | ± 0.25% with a lower limit: ± 0.25 mm (0.01″) |
| Layer height | 100-300 μm | 100-300 μm |
| Infill | 20-100% | Ultra-light, Light, Solid |
The maximum build size for Carbon-filled Nylon (Onyx) is 320 mm x 132 mm x 154 mm
Our FDM Manufacturing Standards
We make your parts by following strict rules for making things. In our inspection report, which is sent with every order, we check that these requirements are met.
Available Materials for FDM 3D Printing
Below is a list of our standard materials for industrial and desktop FDM 3D printing. To instantly compare material prices, upload your parts to our online platform.
| Material | Accuracy (mm) | Min. Wall Thickness | Density (g/cm³) | Heat Deflection Temp (°C) | Melting Temp (°C) | Toughness (Impact Strength XY) | Strength (Flexural Strength XY) |
|---|---|---|---|---|---|---|---|
| PLA | ±0.3 | 1 mm | 1.24 | 57 | 155–170 | 41.7 kJ/㎡ | 91 MPa |
| PLA-CF | ±0.3 | 1 mm | 1.28 | 57 | ~190–210 | 32 kJ/㎡ | 93 MPa |
| ABS | ±0.3 | 1 mm | 1.03 | 99 | ~220 | 50.5 kJ/㎡ | 58 MPa |
| PETG | ±0.3 | 1 mm | 1.28 | 70 | 190–200 | 78.2 kJ/㎡ | 80 MPa |
| PETG-CF | ±0.3 | 1 mm | 1.29 | 70 | 190–200 | 58.3 kJ/㎡ | 83 MPa |
| PETG-GF | ±0.3 | 1 mm | 1.30 | 70 | 190–200 | 23 kJ/㎡ | 76 MPa |
| TPU | ±0.3 | 1 mm | 1.21 | N/A | ~180 | 130.5 J/㎡ | N/A |
| ASA | ±0.3 | 1 mm | 1.07 | 95 | ~210 | 47 kJ/㎡ | 57.5 MPa |
| PC | ±0.3 | 1 mm | 1.20 | 110–120 | ~260 | ~16–20 kJ/㎡ | 90–95 MPa |
| PA6-CF | ±0.3 | 1 mm | 1.06 | 200 | ~250–260 | 45 kJ/㎡ | 160 MPa |
Surface Finishing Options For 3D Printing
Surface finishing is important if you want to make your 3D-printed prototypes or production parts stronger, last longer, look better, or even work better. Check out these different ways to finish your project, and you’re sure to find one that works for you.
| Image | Name | Description | Color | Detail |
|---|---|---|---|---|
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Sanding and Polishing | This process involves sanding the surface of the 3D printed part with increasingly finer grits of sandpaper, followed by polishing with a polishing compound to achieve a smooth surface finish. | n/a | Learn more >> |
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Painting | Painting the surface of the 3D printed part is a simple and effective way to improve its appearance and protect it from environmental factors. A range of paints and finishes can be used, including spray paints, airbrushing, and powder coating. | any colors you want | Learn more >> |
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Chemical Treatments | Chemical treatments such as acetone vapor smoothing can be used to dissolve and smooth the surface of 3D printed parts made from ABS or similar materials. Other chemical treatments can be used to coat the surface of the parts with a protective layer or to alter their properties. | n/a | Learn more >> |
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Electroplating | Electroplating can be used to coat the surface of 3D printed parts with a thin layer of metal, improving their durability, conductivity, and appearance. Common metals used for electroplating include gold, silver, and copper. | Aluminum, steel, stainless steel | n/a |
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Heat Treatment | Heat treatment involves subjecting the 3D printed parts to high temperatures, which can help to improve their strength, hardness, and resistance to wear and tear. | n/a | Learn more >> |
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Laser Etching | Laser etching can be used to create intricate designs and markings on the surface of 3D printed parts, which can be useful for labeling, branding, or creating custom textures. | n/a | Learn more >> |
FAQ
Application
FDM 3D printing is a rapid additive manufacturing technology that is widely used in various industries. Generally, your products are used in the following situations;
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Concept
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Engineering models
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Functional testing
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Consumer products
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High-heat applications
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Initial prototypes
