SLS 3D printing, or Selective Laser Sintering, is an advanced technology used to create durable, functional, and detailed parts. It uses a powerful laser to melt powdered materials layer by layer, building up the part without needing support structures. This makes SLS 3D printing perfect for both quick prototypes and actual production parts, delivering accurate and reliable results every time.
One of the main benefits of SLS 3D printing is its flexibility. It can work with a variety of materials, including nylon, polyamide, thermoplastic polyurethane (TPU), and composites. This allows it to be used in industries like aerospace, automotive, medical devices, and consumer products, where parts often need to be strong, flexible, and heat-resistant. It’s especially great for creating detailed prototypes, custom parts, and small production runs.
Another advantage of SLS 3D printing is its ability to produce complex, high-quality parts with excellent strength. The process is efficient and minimizes material waste, making it cost-effective and eco-friendly. The parts made with SLS 3D printing are tough and can meet the high standards required in industries like aerospace and healthcare. Whether you need a prototype or custom components, SLS 3D printing is a reliable and affordable solution.
Category: Laser Cutting, Sheet Metal Fabrication, Turnkey Solution
To ensure top-quality 3D printing results, we utilize advanced Selective Laser Sintering (SLS) technologies, including standalone SLS systems, each tailored for specific materials and applications to deliver consistent durability and fine detail.
Our SLS 3D printing capabilities provide high-speed, accurate layer sintering, especially suited for producing functional parts from powdered materials like nylon, polyamide, and TPU. The process enables complex geometries without the need for support structures, making it ideal for creating durable, complex components with high mechanical performance.
For applications involving intricate geometries or detailed internal structures, our standalone SLS systems excel. With advanced laser sintering control, it’s perfect for producing parts with fine detail, ensuring dimensional accuracy and surface finish for industrial-grade prototypes and production parts.
Our services guarantee high-precision 3D printing across a range of materials, part sizes, and volumes. Whether for customized industrial parts, functional prototypes, or small-batch production, we offer reliable, precise SLS 3D printing solutions to meet your exact specifications.
Build Volume
250 x 250 x 300 mm
Layer Thickness
0.02 - 0.1 mm
XY Resolution
0.35 - 0.1 mm
Laser Power
200 W
Laser Spot Size
0.2 - 1 mm
Min Edge Radius
0.25 mm
Min Part Size
1 x 1 x 1 mm
Part Qty
1 - 10,000
Minimum Lead Time
7 Days
Standard Lead time
20 Days
Materials for SLS 3D Printing: Stainless Steel, Titanium, Aluminum, Inconel, Maraging Steel, Cobalt-chrome, Nickel-based alloys, Copper alloys
We provide Stereolithography (SLA) 3D printing services using advanced resin-based systems, delivering precise, high-resolution prints with exceptional surface finish. Whether it’s intricate prototypes, dental models, or detailed parts, our SLA printing ensures accuracy and fine detail for a wide range of applications. The table below outlines the compatibility of different resins with SLA 3D printing, highlighting the suitability for various applications and the expected surface quality.
SLA 3D Printing Compatibility Table: This table shows how different materials interact with the SLA printing process, offering insights into resin properties, smoothness, and resolution quality.
Material | Ease of Printing | Durability | Surface Finish | Applications | Notes |
Stainless Steel (316L) | Easy | High | Medium | Aerospace, Medical, Automotive | Excellent corrosion resistance, ideal for high-stress environments |
Aluminum (AlSi10Mg) | Moderate | Medium | Medium | Lightweight Structures, Automotive Parts | Lightweight, good thermal properties, widely used in automotive and aerospace |
Titanium (Ti6Al4V) | Moderate | Very High | Good | Aerospace, Medical Implants | High strength-to-weight ratio, excellent biocompatibility |
Inconel (625) | Difficult | Very High | Rough | High-temperature Components, Turbines | Excellent high-temperature performance, corrosion resistance |
Cobalt-Chrome | Moderate | Very High | Medium | Medical Implants, Aerospace | High wear resistance and biocompatibility, ideal for dental and orthopedic implants |
Maraging Steel (MS1) | Moderate | High | Medium | Tooling, High-strength Applications | High strength, can be heat-treated for even greater durability |
Copper | Difficult | Medium | Rough | Electrical Components, Heat Exchangers | Excellent thermal and electrical conductivity, difficult to print due to high reflectivity |
Tool Steel (H13) | Moderate | High | Medium | Molds, Dies, Tooling | Excellent toughness and heat resistance, used for heavy-duty applications |
Nickel Alloy (718) | Difficult | Very High | Rough | High-stress, High-temperature Components | Suitable for high-temperature aerospace and turbine components |
Bronze | Easy | Medium | Medium | Artistic, Historical Replicas | Low-strength applications, often used for artistic and decorative purposes |
Hastelloy (X) | Difficult | Very High | Rough | Chemical Processing, Aerospace | High corrosion resistance, excellent performance in harsh environments |
Key Notes: