Multi Jet Fusion (MJF 3D Printing)
MJF 3D printing technology produces high-quality nylon components, suitable for both rapid prototyping and production.
Advantages of MJF 3D Printing
Multi Jet Fusion is an advanced industrial 3D printing method that creates functional nylon prototypes and production parts quickly, often within a single day. This technology ensures parts with high-quality surface finishes, high resolution of features, and uniform mechanical properties, offering improvements over other methods such as selective laser sintering.
Typical uses for Multi Jet Fusion include:
- Components requiring uniform isotropic mechanical properties
- Functional prototypes and final-use parts
- Complex and organic shapes with intricate details
Just a few steps to try and complete the delivery
Step 1 : Begin by filling out a form with your specific project requirements and your contact information. This helps us understand what you need and how to contact you for further discussions.
Step 2 : After reviewing your submission, a dedicated product manager will reach out to you. This step ensures that we have a clear understanding of your expectations and requirements, allowing us to tailor our approach specifically to your project's needs.
Step 3 : Once all details are agreed upon, we will proceed with the contractual agreement. This formalizes our engagement and outlines the scope, timeline, and terms of the project. Production begins immediately after the contract is signed, adhering to the highest standards of quality.
Step 4 : Upon completion, your product will undergo a thorough quality check before being delivered to you. We ensure that the final product meets all your specifications and is delivered within the established timeline, ready for use or deployment.
Compare 3D Printing Processes
If you’re new to our 3D printing service and uncertain about which additive technology best suits your 3D design, explore the capabilities of each process outlined below to determine the most suitable option for your application’s needs.
| Maximum Part Size | 284mm x 380mm x 380mm | |
| Layer Thickness | 80 microns | |
| Minimum Feature Size | 0.5mm | |
| Wall Thickness | 0.5mm |
Materials for MJF 3D Printing
| Material | Color | Tensile Strength (MPa) | Tensile Modulus (MPa) | Applications |
|---|---|---|---|---|
| Nylon 12 (PA 12) | White or Natural | 48 | 1700 | General purpose parts, complex designs, batch production |
| Nylon 11 (PA 11) | White or Natural | 50 | 1500 | Flexible or impact-resistant parts, outdoor use |
| Glass Beads Filled Nylon | Gray | 55 | 4500 | Structural parts requiring high stiffness, precision assemblies |
| PA 12 BLACK | Black | 48 | 1700 | Consumer goods where appearance is crucial, UV-resistant parts |
Post-Processing Capabilities for MJF 3D-Printed Parts
Standard
A bead blasting process eliminates all residual powder and creates a uniform texture on the surface.
Vapor Smoothing
It uses vapor to melt and smooth the surface, improving appearance and durability, and is ideal for achieving high-quality finishes in various industries.
Custom
Options include the application of a primer as well as the addition of taps and inserts.
The benefits of MJF 3D printing
Why Use Multi Jet Fusion?
Additionally, MJF excels in crafting complex geometries that are often difficult with other methods. This capability is critical for industries such as automotive, aerospace, and medical devices, where intricate designs and reliable performance are essential.
How Does MJF 3D Printing Work?
Multi Jet Fusion (MJF) 3D printing employs a unique layering process that combines a powdered material with a binding agent, activated by infrared light. This technique allows for the production of parts with high precision and excellent mechanical properties quickly and efficiently.
The real advantage of MJF lies in its ability to create complex, high-density parts without the need for supports, which significantly reduces post-processing time and material waste. Additionally, MJF’s ability to simultaneously print multiple parts increases throughput, making it highly cost-effective for both small and large production runs.