We offer you the possibility of manufacturing components from over 50 different types of plastic. If required, we also carry out post-processing according to your specifications. Thanks to FDM technology, we can produce components that, in some cases, are better suited to conventional manufacturing methods in terms of flexibility and cost-efficiency. Should you require support, we are happy to provide expert advice to find a solution perfectly tailored to your needs.
Table of contents
How can I use a 2D drawing for 3D printing?
What options are there for creating stable threads in plastic?
When does 3D printing make sense?
How does the FDM process work?
What do you do with leftover materials?
Are there different types of FDM printers?
How difficult is it to operate a 3D printer?
What is the procedure?
You can easily send us your 3D file via email , along with details about the component's application and the desired material properties. Based on this information, we will create a customized quote for you, including both the material and the appropriate manufacturing process, so you don't have to worry about anything else. If you already know which material you need, you can also upload your 3D file directly using our online price calculator . The price will be displayed there, but this is a non-binding inquiry. We will then check the technical feasibility and promptly send you a detailed quote. You can then accept it or process the order internally.
How can I use a 2D drawing for 3D printing?
We offer you the possibility to create a 3D model from a 2D drawing, which is ideally suited for 3D printing or conventional manufacturing processes.
What options are there for creating stable threads in plastic?
We can melt threaded inserts into plastic components to increase the stability of threaded connections and prevent thread stripping. These inserts enable a permanent and durable connection within the material. We offer threaded inserts in sizes M2 to M8, suitable for various applications. Alternatively, threads can be machine-cut or integrated directly into the components using 3D printing.
When does 3D printing make sense?
The use of 3D printers is particularly advantageous when conventional manufacturing processes such as CNC machining or injection molding reach their limits. A typical example is the production of complex components that are expensive to manufacture due to high tooling costs or the need for multiple setup operations or specialized tooling. Especially for small production runs that would be uneconomical for injection molding, 3D printing can offer a cost-effective and efficient solution. Using multiple printers, even larger quantities can be produced quickly. Another advantage of 3D printing is the production of large yet intricate components. Such parts would often be time-consuming and resource-intensive in traditional manufacturing, primarily due to the necessary material removal. Furthermore, 3D printing enables the use of new, innovative materials. This opens up the possibility of realizing designs that are only feasible with 3D printing, which in turn offers new design freedoms and optimizations in product development.
How big can you 3D print?
Our 3D printers can produce objects with dimensions of up to 1000x1000x2000mm using the FDM process with PLA material. However, it is important to note that size limitations can vary depending on the object's geometry and the chosen material. Complex shapes or special materials may impose restrictions on the maximum print size and must be evaluated individually to achieve optimal results.
How accurate are 3D printers?
High-quality FDM printers can achieve a print accuracy of up to +/-0.3 mm or even less. This means that FDM printers are capable of printing very fine details and complex structures with precision and accuracy.
How does the FDM process work?
A thermoplastic filament is melted through a heated nozzle and applied layer by layer to form the desired object. Each layer hardens instantly as new layers are applied until the entire object is created. Here's a video on YouTube showing how it works.
What do you do with leftover materials?
There's a company called Recyclingfabrik that accepts leftover prints, failed prints, and unused materials. If your 3D print doesn't meet your expectations or a failure becomes apparent, don't throw it away. Recyclingfabrik gladly accepts any printed object, be it filament remnants, prototypes, support structures, or brims. Empty filament spools can also simply be placed in the box and sent to Recyclingfabrik. This supports sustainable recycling and the prevention of plastic waste.
Are there different types of FDM printers?
Standard FDM printers: These common 3D printers use a filament system that melts along rails with XYZ coordinates to print objects layer by layer. They are versatile, easy to use, and ideal for prototyping and general 3D printing projects.
Robotic arm 3D printers: These advanced models use robotic arms instead of fixed axes to move the print head with its integrated extruder. They offer a wide range of motion, enabling more complex designs and structures. Robotic arm printers are characterized by high precision and flexibility.
Belt 3D printer: This particular system is optimized for mass production. The 3D print head is angled and moves continuously along the belt, enabling efficient mass production with consistent quality. This type of belt 3D printer is well-suited for the repeated production of similar parts.
Markforged 3D printers: These state-of-the-art 3D printers can integrate continuous fibers into the 3D printing process, resulting in exceptionally robust and durable prints. They are ideal for applications where strength and durability are crucial.
Granule 3D printers: These innovative 3D printers use granules instead of filament. Instead of spools, the printing material is available in small granules, offering more cost-effective and environmentally friendly printing options.
Delta 3D printers: Delta printers use three arms on the extruder to move the print head. With a circular print bed, they offer a unique structure that enables precise and fast printing. These printers are ideal for printing round objects and complex geometric shapes.
How difficult is it to operate a 3D printer?
Operating a 3D printer depends on interest, technical skill, and the printer model you choose. A mid-range printer often offers a good balance between ease of use and performance. Very inexpensive models may require more setup, while very expensive printers with complex features can be frustrating. It's not rocket science, but it does require patience and a willingness to learn.
FDM 3D printing service: We accompany you from the design to the finished model.
As an experienced and modern FDM 3D printing service, we offer you maximum flexibility. Our services include a selection of 50 different plastics for you to choose from when manufacturing your models. With our FDM 3D printing service, you can rely not only on our technical expertise but also on the high quality standards we consistently uphold for every order. Furthermore, we offer a comprehensive service, supporting you from the initial design to the finished model. We are also your point of contact if you require professional assistance with the implementation of your 3D design.
Transparency and excellent customer service: You can rely on this with our FDM 3D printing service.
One thing we can promise you: your 3D model production order is in the best hands with us. Our FDM 3D printing service is based on a transparent and well-thought-out offer. Our fairly calculated prices and modern technologies, which promise manageable turnaround times, make 3D printing the ideal solution for producing prototypes or small series of any kind. For our FDM 3D printing service, we rely on sophisticated technologies developed for series production, guaranteeing you the highest possible reliability and quality.
Secure your quote now for our FDM 3D printing service.
We have the necessary expertise to reliably and precisely implement your 3D printing project. If you have any questions about our service, the technologies we use, or the process, we are happy to advise you. If you would like to get a non-binding overview of our FDM 3D printing service and find out what costs to expect, you can use our price calculator . Do you have any questions? Then contact us today .
What materials can be printed?
1. PLA (Polylactic Acid) :
Ideal for prototypes, environmentally friendly and biodegradable.
2. ABS (Acrylonitrile Butadiene Styrene) :
Robust, heat-resistant, for housings of electronic devices.
3. PETG (Polyethylene terephthalate glycol) :
Clear, food-safe, for mechanical parts and bottles.
4. TPU (Thermoplastic Polyurethane) :
Flexible, shock-resistant, ideal for rubber parts and protective covers.
5. ASA (Acrylonitrile Styrene Acrylic Ester) :
UV and weather resistant, perfect for garden furniture and signs.
6. PA (Polyamide):
Abrasion-resistant, for gears and mechanical parts.
7.PC (Polycarbonate) :
High strength, heat resistance, for technical parts.
8. ESD (Conductive Filament) :
ESD safe, for the construction of electronic components, sensors, and enclosures for electronic components.
9. PP (Polypropylene)
Lightweight, flexible, chemical-resistant, often used for containers, bottles, and packaging.
10.PEEK (Polyetheretherketone)
Extremely heat-resistant, high-strength, for high-performance applications such as aerospace and medical technology.
11. HIPS (High-Impact Polystyrene)
Lightweight, soluble in limonene, ideal as a support material, model making, prototypes.
12. PPSU (Polyphenylsulfone)
High temperature resistance, chemically resistant, medical applications, automotive parts, industrial applications.
13. PEI ULTEM (Polyetherimides)
High temperature resistant, flame retardant, for aerospace, medical technology, electronics, and mechanical parts.
14. IGLIDUR
Self-lubricating, wear-resistant, for technical applications such as bearings and sliding guides.
15. Carbon - PLA PETG ABS ASA TPU PA
Reinforcing properties, high strength at low weight, for stiff, lightweight structures.
16. Fiberglass - PA PP
Reinforces plastics, increases strength, for structural components, resistant parts.
17. PCTG
Transparent, impact-resistant, food-safe, for packaging, containers, and food contact parts.
18. Wood filament
Made with real wood particles, for decorative applications, furniture models, rustic designs.
