Industrial SLS 3D Printers for High-Throughput Additive Manufacturing
The TPM3D Performance Series (P Series) is engineered for continuous production. It integrates features like a built-in nitrogen generator and active cooling, ideal for industries seeking industrial-grade results at high throughput.
Top-Loaded Powder Feeding
Reduces machine footprint, lowers energy consumption
Built-In Nitrogen Generator
Enhances print quality and material stability
Patented Active Cooling
Reduces cooling time and minimizes material aging
Compact Design
Fits easily into labs, workshops, and production lines
Wide Material Compatibility
PA12 / PA11 / TPU and more
Industrial SLS 3D Printer Models in the P Series
The P Series includes two selective laser sintering machines designed for mid-size and large-format production. Both models support engineering-grade thermoplastics and are used in prototyping, bridge production, and end-use part manufacturing.
· Build Chamber: 550 x 550 x 850 mm
· Laser: 140W*2 Double Laser
· Building Speed: 10~25 mm/h
· Max Scanning Speed: 22,000 mm/s
· Build Chamber: 360 x 360 x 600 mm
· Laser: 60W
· Building Speed: 10~25 mm/h
· Max Scanning Speed: 15,000 mm/s
Watch the P Series in Action
Overview of system operation, powder handling workflow, and thermal management in the P Series SLS 3D printers.
Applications of P Series SLS 3D Printers
The P Series SLS systems are used in industrial additive manufacturing for prototyping and production across multiple industries
Automotive
End-use parts, jigs & fixtures, and functional prototypes for rigorous testing.
Electronics
Accelerate R&D with rapid appearance and structure validation.
Medical
Biocompatible materials for surgical guides, medical devices and custom parts.
Consumer Goods
Durable, complex parts for performance-driven consumer products.
Education & Arts
From large-scale sculpture to futuristic fashion, giving form to the most complex and imaginative ideas.
Materials Compatible with P Series SLS Printers
The systems support commonly used SLS thermoplastic powders, including:
PA12
A balanced combination of strength, surface quality, and dimensional stability.
PA11
Combine toughness and flexibility for lightweight applications that require durable performance.
TPU
Flexibility, elasticity, and wear resistance for soft-touch and impact-resistant applications.
PP
Lightweight performance, chemical resistance, and durability for functional components.
PA6X
Designed for applications requiring higher mechanical strength and thermal performance.
SLS 3D Printing Applications
The P Series 3D printers are widely adopted for both prototyping and end-use part production in key sectors, including Automotive, Medical, Education & Creative, Aerospace, Material R&D, and more.
Frequently Asked Questions
What is an SLS 3D printer?
Selective Laser Sintering (SLS) is an additive manufacturing technology that uses a laser to fuse polymer powder layer by layer, enabling the production of durable and complex functional parts without support structures.
What materials are compatible with the TPM3D P Series?
Industrial SLS 3D printers commonly support thermoplastic powder materials such as PA11, PA12, PA6, PP, and TPU. Material selection depends on mechanical requirements, flexibility, heat resistance, chemical resistance, and end-use application.
Which industries use TPM3D P Series printers?
TPM3D P Series printers are widely used in automotive, aerospace, healthcare, consumer products, education, and industrial manufacturing. Common applications include functional prototyping, tooling, low-volume production, jigs and fixtures, and end-use polymer components.
Can SLS 3D printing be used for production manufacturing?
Yes. SLS is commonly used for low-volume production, bridge manufacturing, spare parts, and batch production of polymer components. Because SLS produces durable functional parts without tooling, it can be suitable for applications requiring design flexibility or lower production volumes.
What are the advantages of SLS compared with FDM or SLA?
Compared with FDM, SLS generally enables stronger isotropic properties, improved geometric freedom, and no support structures. Compared with SLA, SLS parts are typically more suitable for functional engineering applications due to their mechanical durability and material performance.
How do I choose the right SLS 3D printer?
Key considerations include build volume, throughput requirements, material compatibility, laser configuration, production goals, and available post-processing workflow. For production environments, factors such as powder management, cooling efficiency, and process repeatability may also affect system selection.
What is the difference between a single-laser and dual-laser SLS printer?
Single-laser systems are commonly used for standard production and prototyping, while dual-laser SLS systems can improve throughput for larger builds or higher production volumes by increasing scanning efficiency across the build area.
What build volume is needed for industrial SLS printing?
The required build volume depends on part size, nesting strategy, and production quantity. Smaller systems may suit prototyping and short-run production, while large-format SLS printers can support batch manufacturing and oversized components.
