Free Shipping on orders over €99 & 2-Year Warranty.

Refer friends and Earn a €100 off Discount Code. Learn More

3D Printing Filaments

(9 products)
View as

  • PLA Filament (1kg)

    €28,99 EUR
    In stock
    View details
  • PETG Filament (1kg)

    €28,99 EUR
    In stock
    View details
  • TPU Filament (1kg)

    €39,99 EUR
    In stock
    View details
  • Wood PLA Filament (750g)

    €33,99 EUR
    In stock
    View details
  • Glow-in-the-dark Green PLA Filament (1kg)

    €31,99 EUR
    In stock
    View details
  • ABS Filament (1kg)

    €28,99 EUR
    In stock
    View details
  • Breakaway Support for PLA (500g)

    €22,99 EUR
    In stock
    View details
  • Black Nylon Filament (1kg)

    €67,99 EUR
    In stock
    View details
  • Black High Flow TPU95 Filament (1kg)

    €50,99 EUR
    In stock
    View details

How does a 3D printer work? How does it convert the digital model into an actual physical model?

A 3D printer works by building a physical object layer by layer based on a digital model or design. The process of 3D printing typically involves the following steps:

1. Creating a digital design: The first step is to create a digital 3D model or design using specialized software such as CAD (computer-aided design) or 3D modeling software.

2. Slicing the design: Once the digital model is created, it needs to be sliced into thin, horizontal layers. This is done using a software called a slicer. The slicer analyzes the digital model and generates instructions for the 3D printer to print each layer.

3. Preparing the printer: The 3D printer needs to be prepared before printing. This involves loading the filament, setting the print bed temperature, and calibrating the printer.

4. Printing: The printer then begins to print the model layer by layer, following the instructions generated by the slicer software. The printer extrudes molten plastic or other material through a small nozzle or a laser, depending on the type of 3D printing technology being used.

5. Finishing the print: Once the printing is complete, the object needs to be removed from the print bed and any support structures that were printed along with it need to be removed. The object may also need to be sanded or smoothed to achieve the desired finish.

Overall, 3D printing is a complex process that requires specialized equipment and software, as well as a good understanding of the technology involved. With the right tools and knowledge, however, 3D printing can be a powerful tool for creating custom, complex, or one-of-a-kind objects.

Here are some ideas to help you get started:
1. Material selection: Choose materials with different properties, such as hardness, density, and color, to create a variety of effects. You can also try combining multiple materials, like metal and wood or acrylic and fabric, to achieve distinctive results.
2. Cutting tools and techniques: Utilize different types of cutting tools, such as end mills, ball nose cutters, or V-bits, to create varying textures and patterns. Experiment with different cutting techniques, like engraving, pocketing, or contouring, to generate unique shapes and designs.
3. Layering: Use the layering technique to create intricate patterns and textures. Cut multiple layers of different materials or colors and stack them together to form a single piece. You can also create relief or embossed effects by varying the depth of cut between layers.
4. Inlays and overlays: Incorporate inlays or overlays in your designs by cutting a shape or pattern into one material and fitting another within the cutout space. This can create visually striking and textured effects.
5. Varying cutting depths: Experiment with different cutting depths to create engraved or embossed designs, which can add texture and dimension to your products.
6. Machining strategies: Test various machining strategies, like adaptive clearing or high-speed machining, to achieve different surface finishes and textures. Adjusting the stepover or feed rate can also alter the final appearance of your product.
7. Finishing techniques: Apply post-processing techniques, such as sanding, polishing, painting, or staining, to create unique textures and effects on the cut materials. You can also use techniques like patination or anodization for metals to achieve interesting color and texture variations.
8. Software and design: Use CAD/CAM software to design and simulate your projects before cutting. Experiment with different patterns, shapes, and geometries to create innovative designs. Some software also allows you to apply textures or patterns to the surface of your model, which can be translated into CNC toolpaths.

What are the advantages and disadvantages of using each type of material for 3D printing?

There are several materials commonly used for 3D printing, each with their own advantages and disadvantages:

1. PLA (Polylactic Acid): PLA is a biodegradable and plant-based material, which makes it eco-friendly. It is easy to print and has a low melting point, which reduces the risk of warping. However, it is not as strong as other materials and can become brittle over time.

2. ABS (Acrylonitrile Butadiene Styrene): ABS is a strong and durable material that is used in many applications, including toys, automotive parts, and electronic housings. It has a high melting point, which makes it more resistant to heat than PLA. However, it can be difficult to print and emits toxic fumes when heated.

3. PETG (Polyethylene Terephthalate Glycol): PETG is a strong and flexible material that is resistant to impact and moisture. It has a lower melting point than ABS, which makes it easier to print. However, it is prone to stringing and can be more difficult to print than PLA.

4. Nylon: Nylon is a strong and durable material that is used in many industrial applications. It is resistant to impact and abrasion, and has a high melting point. However, it can be difficult to print and requires a heated print bed.

5. TPU (Thermoplastic Polyurethane): TPU is a flexible and elastic material that is used for printing phone cases, toys, and other products that require a rubber-like texture. It has a low melting point, which makes it easy to print, but can be difficult to control.

6. Metal: Metal 3D printing is a relatively new technology that is used to produce high-quality parts with high accuracy and detail. Metal parts are strong, durable, and resistant to heat and corrosion. However, metal 3D printing is expensive and requires specialized equipment.

7. Wood: Wood filaments are made from a mixture of wood particles and PLA. They can be printed to create objects that look and feel like wood. However, they require a larger nozzle size and can clog the printer's nozzle more easily.

Overall, the choice of material depends on the specific application and the desired properties of the final product. It is important to consider factors such as strength, durability, flexibility, and ease of printing when selecting a material for 3D printing.

What is print quality, how is it measured, and how can you optimize print quality such as surface smoothness, precision, and material durability?

Print quality is the degree to which a 3D printer produces a desired object that matches the specifications and requirements of the user. Print quality can be measured by several factors, including surface finish, dimensional accuracy, layer resolution, and material properties.

Surface finish refers to the smoothness and appearance of the object's surface, with smoother surfaces generally considered higher quality. Dimensional accuracy refers to how accurately the object matches the intended dimensions and shape, which can be affected by factors such as printer calibration, material shrinkage, and layer height. Layer resolution refers to the thickness of each printed layer, with thinner layers generally resulting in higher quality prints. Material properties refer to the physical characteristics of the printed material, including strength, flexibility, and durability.

To optimize print quality, several factors should be considered, including printer calibration, material selection, printing temperature, print speed, and support structures. Printer calibration ensures that the printer is properly configured and can accurately produce the desired object. Material selection can impact print quality, with different materials offering varying levels of strength, flexibility, and durability. Printing temperature and speed can also affect print quality, with slower and cooler printing generally resulting in higher quality prints. Support structures can be used to ensure that overhanging parts of the object are supported during printing, which can improve dimensional accuracy and surface finish.

In addition to these factors, post-processing can also be used to further optimize print quality. Sanding or polishing can be used to smooth out surface imperfections, while painting or coating can improve the appearance and durability of the object. Overall, optimizing print quality requires attention to detail and a willingness to experiment with different settings and techniques.

How to choose the printer model suitable for your project, such as desktop, industrial, SLA, FDM, etc., and the differences and advantages and disadvantages among them?

When choosing a 3D printer, there are several factors to consider based on your project needs. Here are some general considerations for different printer types:

1. Desktop 3D printers: These are the most common 3D printers used by hobbyists and small businesses. They are affordable, easy to use, and have a compact size. Desktop printers can use either FDM or SLA technology.

2. Industrial 3D printers: These are more expensive and larger than desktop printers. They are used for industrial manufacturing and prototyping, and can handle larger and more complex parts with high precision and speed.

3. FDM 3D printers: These use melted plastic filaments to create objects layer by layer. FDM printers are affordable and versatile, making them suitable for a wide range of applications. They have a larger selection of materials available than other printers.

4. SLA 3D printers: These use a laser to cure a photosensitive resin, creating objects with high precision and resolution. SLA printers are ideal for creating detailed and intricate parts with smooth surfaces.

When choosing a printer, consider the following factors:

- Print quality: Look for a printer that produces high-quality prints with minimal defects.

- Build volume: The maximum size of the objects that can be printed on the printer.

- Print speed: The rate at which the printer can produce objects.

- Material compatibility: Make sure the printer can handle the type of material you want to use.

- Ease of use: Consider how user-friendly the printer is and whether it comes with software that is easy to navigate.

- Price: Determine your budget and find a printer that fits within it while still meeting your needs.

It's also a good idea to read reviews and seek advice from experienced users to get a better understanding of the different models and their capabilities.

What are some emerging trends or innovations in printing materials, such as biodegradable filaments or multi-color resins?

There are several emerging trends and innovations in printing materials that are currently being developed and explored. Some of these include:

1. Biodegradable and sustainable filaments: With an increasing focus on sustainability, there is a growing demand for biodegradable filaments made from natural materials such as bamboo, wood, or cornstarch. These materials can be used for a wide range of applications, from packaging to consumer goods.

2. Multi-color and gradient filaments: Multi-color filaments allow for the creation of 3D prints with more intricate and detailed designs, as well as the ability to produce objects in multiple colors without having to change the filament during the printing process. Gradient filaments, on the other hand, allow for smooth transitions between different colors, creating a more natural and seamless appearance.

3. High-performance filaments: There is a growing demand for filaments with high-performance properties such as strength, durability, and heat resistance. Materials such as carbon fiber, Kevlar, and metal-infused filaments are being developed to meet these demands.

4. Conductive and magnetic filaments: These filaments contain conductive or magnetic particles that allow for the creation of prints with electrical or magnetic properties. They can be used for applications such as sensors, motors, and electromagnetic shielding.

5. Recycled filaments: As the 3D printing industry grows, there is also a growing concern about the amount of waste generated by 3D printing materials. Recycled filaments made from recycled plastics or other materials are being developed to address this issue.

Compare /4