Filling
Infill determines the internal density of the part, directly influencing its strength, weight, and printing cost. The higher the infill, the more robust the part, but also the longer it takes to print.
10-25% (Light)
This infill is ideal for decorative objects or parts that do not require high strength. It reduces printing costs and time while maintaining sufficient internal structure for aesthetic or lightweight uses.
30-50% (Balanced)
This fill level offers a good compromise between strength and weight. It is recommended for parts subject to moderate stress, such as everyday objects or parts requiring a certain robustness without being completely full.
70-100% (Solid)
For parts requiring high strength, a high infill is necessary. This choice is ideal for technical, mechanical, or structural parts that must withstand heavy loads or repeated stresses.
Print quality
Print quality is defined by the thickness of the deposited layers. The thinner the layers, the finer the details, but the longer the print time. A greater thickness allows for faster printing, but with a less smooth surface.
0.28 mm (Fast)
This thickness allows for faster printing, with thicker layers and therefore less fine detail. It is ideal for prototypes, large parts, or objects where aesthetics are secondary.
0.20 mm (Standard)
This setting is the most commonly used because it offers a good balance between print quality and speed. Layers remain visible, but the finish is crisp enough for most uses.
0.16 mm (Precise)
Reduced thickness improves fine detail and surface quality, which is useful for parts with curves, textures, or patterns that require greater precision. Printing takes a little longer, but the result is more polished.
0.12 mm (High precision)
With very thin layers, this option allows for an extremely detailed finish and a smooth surface. It is the ideal choice for objects requiring a high level of detail or a flawless appearance, although the printing time is significantly longer.
Material type
The choice of material depends on the intended use of the part. Some are more rigid and easier to print, while others offer increased impact resistance, heat resistance, or flexibility.
PLA
This material is the most widely used in 3D printing due to its ease of use and low environmental impact. It is rigid, biodegradable, and offers good print quality, but is sensitive to heat and shock. It is ideal for decorative objects, models, and parts that are not subject to high stress.
ABS
Stronger and more durable than PLA, ABS is a suitable choice for technical or functional parts. It is more resistant to heat and impact, making it ideal for mechanical parts, solid prototypes, or objects subjected to more demanding conditions. However, it requires printing in a controlled environment to avoid warping.
TPU
This flexible and elastic material is ideal for parts requiring flexibility and good impact resistance. It is often used to make protective shells, gaskets, soles, or any other object that needs to be deformable without breaking. Its printing is more complex, but it offers great versatility.