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3D Printing in ABS
ABS (acrylonitrile butadiene styrene) is one of the most widely used materials in 3D printing, known for its durability and strength. This thermoplastic is ideal for creating functional and mechanical parts, thanks to its ability to withstand high temperatures and its good dimensional stability. Additionally, ABS is easy to post-process, allowing for sanding and painting the parts to achieve high-quality finishes.
It is available in three attractive colors and is highly impact resistant, making it an excellent choice for applications requiring strength and longevity.





ABS: when it is the perfect choice… and when it is not.
Knowing the material’s limits saves you reprints: where it excels and where it does not.
Advantages of ABS Pros
When is the perfect material choice?
- Ideal for functional and mechanical parts that require durability
- Resistant to high temperatures and deformations
- Easy to post-process, allows sanding and painting for custom finishes
- Good dimensional stability, ideal for prototypes and functional parts
- Variety of applications, from toys to automotive components
- High impact resistance, making it durable in adverse conditions
Disadvantages of ABS Cons
When to look for other material options
- It is not biodegradable, which can be a drawback for those seeking sustainability
- Not ideal for parts that require high mechanical strength
- Less economical than PLA or PETG
- It can emit odors when heated, a disadvantage in enclosed spaces
- It can be more prone to accumulating static, which can attract dust and dirt
- Its color may fade over time, especially with direct sunlight
ABS: 3 colors in stock.
The final color may vary slightly depending on the material batch and the orientation of the part. If you need another color, ask us when placing your order.
FDM: fused deposition modeling.
FDM, or fused deposition modeling, is a manufacturing process used for prototyping and the production of small to medium runs. This modeling uses an additive function, depositing the material in layers to shape the part.
A filament is used that is initially stored in rolls, and is fed into a nozzle that is above the melting temperature of the material and can move in three axes controlled electronically. The nozzle moves to deposit the material in the correct location, drawing the model line by line. Once a layer is drawn, the base lowers by a layer thickness (0.1-0.4) so that the printer can continue with the next layer.
When the model to be printed has sections that protrude or have a steep angle, a support structure is created where necessary and is printed in a material that can later be easily removed, in some cases soluble. This is done to ensure that the model does not hang in the air, thus preventing the layer from falling.
More about FDM 3D printing →ABS: technical properties.
Typical values for the material we use in production. Download the datasheet and the safety data sheet for the full figures.
| Property | Value | Test Method |
|---|---|---|
| Density | 1.04 g/cm^3 | ISO 1183 |
| Tensile Strength | 39 MPa | ISO 527 |
| Flexural Strength | 60 MPa | ISO 178 |
| Tensile Strength | 50 MPa | ISO 527 |
| Elongation | 20 % | ISO 527 |
| Softening Temperature | 91 ºC | 0.45 MPa / ISO 75-A |
ABS: technical documentation.
Reference values from the material manufacturer. Final properties depend on orientation, infill and layer height.