Sign in Get Instant Quote

3D Printing Services

Selective Laser Sintering (SLS)

At a glance

Lifecycle

Functional testing, low to mid volume prototyping (10s - 100s)

Lead Time

3 days

Resolution

0.1 mm

Infill

100% (solid)

Materials

Nylon, Nylon 12 Flame Retardant, TPU 88A

3D Printing Materials

Nylon

Nylon 12 Flame Retardant

TPU 88A

Nylon

Multi Jet Fusion (MJF) Nylon is a synthetic 3D printed polymer material that’s strong, durable, and flexible. MJF Nylon is typically considered more often for end-use parts and functional testing under higher loads. MJF Nylon is a cost-effective option for higher bridge production quantities because of the machine’s modular design and faster production speed. Nylons offered: Nylon 11, Nylon 12, and Nylon 12 Glass-Filled
Processes:
Selective Laser Sintering (SLS)
Multi Jet Fusion (MJF)
Colors:
(Selective Laser Sintering (SLS)) White, Black
(Multi Jet Fusion (MJF)) Grey, Black
Resolution:
(Selective Laser Sintering (SLS)) 0.1 mm
(Multi Jet Fusion (MJF)) 0.08mm
Infill:
(Selective Laser Sintering (SLS)) 100% (solid)
(Multi Jet Fusion (MJF))
Max Print Size:
(Selective Laser Sintering (SLS)) 700 x 380 x 580 mm
(Multi Jet Fusion (MJF)) 380 x 284 x 380 mm
MJF nylon thumbnail

Design Recommendations

Max Part Size [x, y, z]

340 x 340 x 600 mm (P390) or 700 x 380 x 580 mm (P760)

Gaps for Mating Parts

0.5 mm clearance between features

Tolerance

+/- (0.25 mm + 0.002mm/mm)

Min Wall Thickness

1.0 mm for production, 1.5 mm for consistent measurement or mechanical properties
  • For long, thin parts: use ribbing to mitigate warping risks.

Cost Saving Tip

If using 3D printing for higher part quantity fabrication (20+), SLS will be the most cost effective additive manufacturing process.

About the Process

Selective Laser Sintering uses high-powered lasers to sinter powdered material, binding it together to create a solid structure. It is often confused with another similar process called Selective Laser Melting (SLM), the difference being that it only sinters the powders together as opposed to achieving a full melt.

Parts are supported by unsintered powder in each layer, which remain spread across the build volume until each layer is fused together. Once complete, the part is removed from the remaining powder and cleaned by hand and using water/air jets.

While parts created using this technology can contain some metal, they are usually plastic composites that present a good strength to weight ratio and can be acquired relatively cheaply. For parts that must be structurally as sound as forged solid metal, DMLS is required. Still, the high level of accuracy, relatively cheap feedstock, and high temperatures achievable with SLS printing make it an incredibly useful technology with a broad range of applications ranging from architectural models to control surfaces of aircraft and surgical tools.

YOU MIGHT ALSO BE INTERESTED IN

Prototyping In-House vs Outsourcing: The ROI for Mechanical Engineering Teams

As product development cycles accelerate, engineering leaders face a recurring strategic question: How fast can we prototype—and where does it make financial sense to build? With premium compensation levels for mechanical engineers (especially with seniority and years of experience), the opportunity cost of hands-on prototyping has never been higher. When factoring in loaded labor rates, […]

Learn More

Rapid Prototyping: A Complete Guide to Fast Manufacturing for Product Development

Whether you’re in early development of a medical device, a consumer electronics accessory, or a simple cable clip for your desk, the goal is usually the same: to test the concept as quickly as possible. When it comes to getting your product from a digital idea on screen to something physical in hand, prototyping is […]

Learn More

Also of Interest