Typical turnaround is faster than many other 3D printing methods due to simultaneous layer fusion.
Experience rapid manufacturing of durable, high-precision parts with remarkable surface detail and dimensional accuracy. MJF technology ensures consistent results for both prototypes and end-use components, even in complex geometries.
Multi Jet Fusion (MJF) is an advanced additive manufacturing method designed to create functional parts with exceptional detail and accuracy through a powder bed fusion process. Instead of conventional techniques, it employs inkjet heads to deposit both fusing and detailing agents, followed by infrared energy to solidify each layer. This approach delivers strong, dimensionally precise, and geometrically complex components with a refined surface finish and uniform mechanical properties, making it ideal for high-performance applications.
Our Multi Jet Fusion (MJF) service enables rapid, accurate manufacturing of robust plastic parts with superior strength. Utilizing a powder-based 3D printing process, it achieves smooth surfaces, intricate detailing, and consistent mechanical performance. Perfect for functional prototypes and small-batch production, MJF delivers repeatable quality even in intricate designs. We cater to diverse industrial needs with efficiency, precision, and dependable turnaround times.
Engineers and leading manufacturers trust Yicen Precision for fast iterations and durable, high-performance parts. Whether for prototyping or full-scale production, our extensive material selection ensures precision, strength, and reliability for any CNC machining project.
HP 3D High Reusability PA 11
HP 3D High Reusability PA 12
HP 3D High Reusability PA 12 Glass Beads (40% GB)
HP 3D High Reusability PP
BASF Ultrasint™ TPU01
Yicen Precision offers a full range of surface finishing services to enhance the look, feel, and functionality of your MJF parts.
We provide precision assembly services and detailed post-processing to ensure each MJF part meets your exact design and performance specifications.
Adds deep, uniform color to MJF parts by immersing them in dye solutions. This process maintains dimensional accuracy while enhancing visual appeal.
Applies controlled chemical vapors to melt outer surfaces slightly, reducing porosity and achieving a smoother, semi-gloss finish on SLS parts.
Impregnates parts with resins or waxes to seal the surface, enhancing strength, durability, and moisture resistance. Ideal for functional end-use components.
Primer fills surface imperfections and creates a consistent base for painting. Painting adds color, UV protection, and improves part aesthetics.
Tailored textures can be added to improve grip, reduce glare, or create unique visual effects. Useful for ergonomic components and visually distinctive applications.
Uses high-pressure blasting with fine media to strengthen the surface and create a uniform matte finish. Effective for parts requiring a consistent, durable texture.
Smooths the natural grainy surface of MJF parts, resulting in a more refined, uniform appearance. Ideal for functional prototypes and end-use parts where aesthetics are important.
We specialize in converting your ideas into high-quality, functional components with unparalleled speed and accuracy. With advanced technology and expert craftsmanship, we create parts that meet the most complex specifications.
At Yicen Precision, our Multi Jet Fusion (MJF) workflow is designed for maximum accuracy, repeatability, and efficiency, ensuring every part meets both dimensional and functional requirements. The process follows these key steps:
Every MJF project begins with a detailed 3D CAD model. Our engineers review the design for manufacturability, adjusting geometries, wall thicknesses, and support structures to optimize for MJF printing. We also use nesting software to arrange parts in the build volume for maximum efficiency and minimal material waste.
The MJF printer spreads a thin, even layer of nylon-based powder (typically PA 12 or PA 11) across the build platform. At Yicen Precision, we maintain precise layer thickness as fine as 80 microns to ensure superior resolution and detail.
An inkjet array selectively deposits fusing agents where the material needs to solidify and detailing agents where crisp edges or fine features are required. This dual-agent approach allows for high accuracy and isotropic mechanical properties in the final part.
Infrared lamps pass over the layer, activating the fusing agents and bonding the powder particles into a solid cross-section. This process is repeated layer by layer until the complete part geometry is built.
Once printing is complete, the build unit is transferred to a cooling station to prevent thermal distortion. The cooled parts are then carefully removed, and excess powder is reclaimed and processed for reuse at an optimal refresh rate.
Depending on the application, Yicen Precision offers bead blasting, dyeing, coating, or machining for a refined finish. All parts undergo dimensional inspection, surface quality checks, and functional testing to ensure compliance with client specifications.
MJF delivers speed, strength, and precision; it also presents certain production hurdles from material handling to surface quality that can be effectively addressed through process optimization and advanced post-processing techniques.
Challenge: MJF parts are typically produced in shades of gray or black due to the powder fusing process, limiting aesthetic variety without additional finishing.
Solution: Manufacturers solve this by using dyeing, painting, or coating methods to expand the color palette, while ongoing R&D explores integrated multi-color printing capabilities for future MJF systems.
The Challenge: Although MJF reuses unfused powder, repeated recycling can degrade material properties, reducing part strength and consistency.
Solution: Optimizing the refresh rate the ratio of new powder to recycled powder ensures material integrity. Some operations also integrate automated powder handling systems to minimize waste.
Challenge: After printing, MJF parts require extended cooling periods to prevent warping or deformation, which can slow down production schedules.
Solution: Adopting modular build units allows new jobs to start while previous batches cool, effectively overlapping production cycles and boosting throughput without compromising quality.
Challenge: While MJF produces smoother surfaces than some 3D printing methods, parts can still have a slightly grainy texture due to the powder-based process.
Solution: Post-processing techniques such as bead blasting, chemical smoothing, or coating application can achieve a polished, consumer-grade finish without altering part dimensions.
Challenge: MJF systems have a high entry cost, which can deter small-scale manufacturers from adoption.
Solution: Many businesses partner with dedicated MJF service providers, allowing them to access the technology without direct capital expenditure, while benefiting from expert operation and maintenance.
Explore Machining services blog for expert insights on CNC machining, industry trends, manufacturing tips, and technology updates—designed to keep you informed, inspired, and ahead in precision engineering.
How fast can you deliver MJF parts?
Typical turnaround is faster than many other 3D printing methods due to simultaneous layer fusion.
Can MJF parts withstand functional testing?
Yes, MJF parts have isotropic strength suitable for demanding applications.
What is the maximum part size?
We can produce parts up to several hundred millimeters in each dimension.
Do you offer finishing services?
Yes, including dyeing, bead blasting, and assembly.
Is MJF suitable for production runs?
Absolutely, it scales efficiently from prototypes to medium-volume manufacturing.