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Maschinen und Add-ons

(23 produkte)
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  • ENCLOSURE FOR SNAPMAKER 2.0 (VAT INCL.) ENCLOSURE FOR SNAPMAKER 2.0 (VAT INCL.)
    Bis zu €100,00 Rabatt

    Gehäuse für Snapmaker 2.0

    Von €459,00 EUR €559,00
    Auf Lager
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  • SNAPMAKER ROTARY MODULE (HARMONIC DRIVE VERSION) (VAT INCL.) SNAPMAKER ROTARY MODULE (HARMONIC DRIVE VERSION) (VAT INCL.)
    Bis zu €184,49 Rabatt

    Snapmaker Drehmodul (inkl. MwSt.)

    Von €459,00 EUR €639,00
    Auf Lager
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  • Filterpatrone für Luftreiniger (2 Stück)

    €229,00 EUR
    Auf Lager
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  • Snapmaker Luftreiniger (inkl. MwSt.)

    €559,00 EUR
    Auf Lager
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  • Snapmaker CAN Hub (inkl. MwSt.)

    €69,00 EUR
    Auf Lager
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  • Snapmaker 2.0 3D-Druckmodul (inkl. MwSt.)

    €169,00 EUR
    Auf Lager
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  • 3D Printers Online Store LINEARMODUL MIT TMC2209- A350/A350T/F350/A250/A250T/F250/A150
    Bis zu €360,00 Rabatt

    LINEARMODUL MIT TMC2209- A350/A350T/F350/A250/A250T/F250/A150

    Von €99,00 EUR
    Auf Lager
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  • SNAPMAKER 2.0 MODULAR 3-IN-1 3D PRINTER WITH ENCLOSURE A350T/A250T (VAT INCL.) SNAPMAKER 2.0 MODULAR 3-IN-1 3D PRINTER WITH ENCLOSURE A350T/A250T (VAT INCL.)
    Bis zu €1.000,00 Rabatt

    SNAPMAKER 2.0 MODULARER 3-IN-1 3D-DRUCKER MIT GEHÄUSE A350T/A250T (INKL. MWST.)

    Von €549,00 EUR €799,00
    Auf Lager
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  • Snapmaker 2.0 Not-Aus-Taster (inkl. MwSt.)

    €69,00 EUR
    Auf Lager
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  • Snapmaker 10W High Power Laser Module (VAT Incl.) Snapmaker 10W Hochleistungs-Lasermodul (inkl. MwSt.)
    Bis zu €170,00 Rabatt

    Snapmaker 10W Hochleistungs-Lasermodul (inkl. MwSt.)

    Von €349,00 EUR €519,00
    Auf Lager
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  • Snapmaker 2.0 Modular 3D Printer F350/F250 Snapmaker 2.0 Modular 3D Printer F350/F250
    Bis zu €250,00 Rabatt

    Snapmaker 2.0 Modularer 3D-Drucker (inkl. MwSt.)

    Von €549,00 EUR €799,00
    Auf Lager
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  • 3D Printers Online Store SNAPMAKER ARTISAN MODULARER 3D-DRUCKER (INKL. MWST.)
    Bis zu €500,00 Rabatt

    SNAPMAKER ARTISAN MODULARER 3D-DRUCKER (INKL. MWST.)

    Von €1.699,00 EUR €1.999,00
    Auf Lager
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  • Snapmaker 2.0 Dual Extrusion 3D Printing Module (VAT Incl.) Snapmaker Doppelextrusion 3D-Druckmodul (inkl. MwSt.)
    Bis zu €200,00 Rabatt

    Snapmaker Doppelextrusion 3D-Druckmodul (inkl. MwSt.)

    €499,00 EUR €699,00
    Auf Lager
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  • 3D Printers Online Store Snapmaker J1 Hochgeschwindigkeits-IDEX-3D-Drucker (inkl. MwSt.)
    Bis zu €629,00 Rabatt

    Snapmaker J1 Hochgeschwindigkeits-IDEX-3D-Drucker (inkl. MwSt.)

    Von €899,00 EUR €1.499,00
    Auf Lager
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  • Snapmaker 20W & 40W Laser Module with Air Assist (VAT Incl.) Snapmaker 20W & 40W Laser Module with Air Assist (VAT Incl.)
    Bis zu €480,00 Rabatt

    Snapmaker 20W & 40W Laser Module with Air Assist (VAT Incl.)

    Von €589,00 EUR €639,00
    Auf Lager
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What safety certifications or standards should you look for when purchasing a 3D printer, and what safety precautions should be taken when using one?

When purchasing a 3D printer, it is important to look for safety certifications or standards such as the UL certification or the CE marking, which indicate that the product has been tested and certified for safety by a recognized third-party organization. Additionally, it is recommended to choose a 3D printer with built-in safety features such as thermal runaway protection, which helps prevent overheating and potential fires.

When using a 3D printer, it is important to follow proper safety precautions to minimize potential hazards. These precautions include:

1. Keeping the printer in a well-ventilated area to avoid inhaling potentially harmful fumes.

2. Wearing appropriate protective gear such as gloves and goggles.

3. Ensuring that the printer is not left unattended while in operation, especially if using a heated bed or nozzle.

4. Regularly inspecting the printer for any signs of damage or wear and tear, and addressing any issues promptly.

5. Using high-quality and certified materials for printing.

6. Familiarizing yourself with the printer's manual and instructions to ensure proper operation and maintenance.

7. Keeping the printer and its components out of reach of children and pets.

By following these safety precautions and ensuring that the 3D printer has appropriate safety certifications and features, you can minimize potential hazards and ensure safe operation of the device.

What are the future trends and developments in 3D printing technology, such as new materials, faster printing speeds, or more affordable machines?

There are several future trends and developments in 3D printing technology that are expected to continue to advance and improve the capabilities and applications of this technology. Some of these trends include:

1. New materials: While current 3D printing materials range from plastics to metals and ceramics, there is ongoing research to develop new materials with unique properties and capabilities, such as flexible materials or materials with high thermal conductivity.

2. Faster printing speeds: Speed is a common challenge in 3D printing, as some prints can take hours or even days to complete. However, new advancements in technology are being developed to increase printing speeds, such as using multiple print heads or developing new printing techniques.

3. More affordable machines: The cost of 3D printers has decreased significantly in recent years, making them more accessible to hobbyists and small businesses. As the technology continues to develop, it is expected that the cost of 3D printers will continue to decrease, making them even more affordable and widespread.

4. Advanced software: As 3D printing becomes more mainstream, software developers are creating more user-friendly programs that allow for easier design and printing processes. Additionally, there is ongoing development of more advanced software that allows for more complex designs and customization.

5. Integration with other technologies: There is an increasing trend towards integrating 3D printing with other technologies, such as artificial intelligence and robotics. This allows for more advanced and automated manufacturing processes that can significantly reduce production time and costs.

Overall, the future of 3D printing technology is exciting and holds great potential for continued advancements and improvements.

How does the accuracy and precision of 3D printing compare to other manufacturing methods, and what factors can impact the quality of 3D prints?

3D printing can provide high accuracy and precision comparable to traditional manufacturing methods, but the quality of the final product depends on several factors, including the printer's capabilities, the materials used, and the design of the 3D model. The resolution of the printer is one of the most critical factors that determine the accuracy of the printed object. The higher the printer's resolution, the finer the details that can be captured in the print. The precision of 3D printing is also influenced by the type of technology used, such as FDM or SLA.

In terms of accuracy and precision, 3D printing can be more flexible and versatile than other manufacturing methods because it can create complex shapes and intricate designs that are difficult or impossible to produce with traditional methods. However, there are some limitations to 3D printing, such as the size of the print bed, the quality of the materials, and the speed of the printer.

To ensure high accuracy and precision in 3D printing, it's important to use high-quality printing materials and to calibrate the printer regularly. The printer's bed should be level, and the nozzle should be positioned correctly to ensure that the printed object is uniform and without defects. Additionally, the design of the 3D model should take into account the printer's capabilities and limitations to ensure that the final product meets the desired specifications.

As 3D printing technology continues to evolve, new materials, printing methods, and software tools are likely to emerge that will enhance the accuracy, precision, and speed of the printing process, making 3D printing an increasingly popular and viable option for a wide range of manufacturing applications.

What are some notable open-source 3D printing projects, and how can users contribute to these projects?

There are many notable open-source 3D printing projects that have been developed and continue to be maintained by communities of users and developers. Some examples include:

1. RepRap: RepRap, short for "Replicating Rapid Prototyper," is a self-replicating 3D printer project that aims to make 3D printing accessible and affordable for everyone. The project provides open-source designs and software for creating 3D printers that can print their own parts.

2. Marlin: Marlin is an open-source firmware for 3D printers that allows for greater control and customization of the printing process. The project is community-driven and supports a wide range of 3D printer models.

3. Ultimaker Cura: Ultimaker Cura is a free and open-source software for preparing 3D models for printing. It allows for slicing, layering, and supports a wide range of file formats.

4. OpenSCAD: OpenSCAD is a free and open-source software for creating 3D models using a programming language. It allows for precise and customizable designs that can be easily modified and shared.

5. Prusa Research: Prusa Research is a company that produces open-source 3D printers and provides free designs and software for creating custom 3D printers and upgrades. The company also hosts a community forum for users to share ideas and collaborate on projects.

Users can contribute to these projects in a variety of ways, such as by testing and reporting bugs, contributing code or designs, providing feedback, or helping to translate software and documentation. Additionally, users can create their own open-source projects and share them with the community, helping to further advance the field of 3D printing.

What are some common misconceptions or myths about 3D printing, and how can these be addressed?

There are several common misconceptions or myths about 3D printing that can be addressed:

1. 3D printing is too expensive: While 3D printing technology was initially expensive, the cost has decreased significantly in recent years. There are now many affordable 3D printers on the market, and even high-end models are much more accessible than they were a few years ago.

2. 3D printing is only for making toys and trinkets: While 3D printing is often used for making toys and trinkets, it can also be used to make functional parts and products. Many industries, including aerospace, automotive, and medical, are now using 3D printing to create high-quality, durable products.

3. 3D printing is difficult and requires a lot of technical knowledge: While 3D printing does require some technical knowledge, it is becoming more user-friendly with advances in technology. There are now many easy-to-use 3D printing software programs that make it simple for even beginners to create high-quality prints.

4. 3D printing is slow: While 3D printing can be slower than some other manufacturing methods, advances in technology have improved printing speeds significantly. High-end 3D printers can now print objects in just a few hours.

5. 3D printing is bad for the environment: While 3D printing does use materials and energy, it can be a more sustainable manufacturing method in some cases. For example, 3D printing can reduce waste by only using the exact amount of material needed for a specific part or product.

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