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Wipro 3D

SLM®125
Industrial 3D Printer

Designed for rapid prototyping and low-volume manufacturing, this compact yet powerful system offers tailored solutions for industries demanding high-quality metal components. With its advanced features and intuitive interface, the SLM®125 streamlines production processes, empowering you to stay ahead in today's competitive market.

SLM®125 <br />Industrial 3D Printer
Unique Features

Unique Features

Compact Precision
Compact Precision

The SLM®125 offers compact, accurate metal 3D printing capabilities, making it ideal for applications with low powder volume requirements, ensuring precision in limited spaces.

Efficient Parameter Development
Efficient Parameter Development
Reliable Powder Management
Reliable Powder Management
Customer-Centric Solutions
Customer-Centric Solutions
Rapid Prototyping
Rapid Prototyping
Low Volume Manufacturing
Low Volume Manufacturing
Cost-Effective Production
Cost-Effective Production
Flexible Material Options
Flexible Material Options
High-Quality Output
High-Quality Output
Streamlined Workflow
Streamlined Workflow

Technical Specification

Build Envelope (L X W X H) 125 x 125 x 125 mm³, reduced by substrate plate thickness
Build Volume Reduction (L X W X H) 50 x 50 x 50 mm³, reduced by substrate plate thickness
3d Optics Configuration Single (1x 400 W)
Theoretical Build Rate up to 33* cm³/h
Variable Layer Thickness 20 - 75 µm, more available on request
E-connection / Power Input 400 Volt 3NPE, 32 A, 50/60 Hz, 3 kW
Compressed Air Requirement ISO 8573-1:2010 [1:4:1] 7 bar
Machine Dimensions (L X W X H) 1400 x 900 x 2460 mm³
Minimum Feature Size 140 µm
Beam Focus Diameter 80 - 100 µm
Maximum Scan Speed 10 m/s
Average Inert Gas Consumption In Process 0.6 L/min (Argon)
Average Inert Gas Consumption In Purging 70 L/min (Argon)

*Theoretical system build rate = layer thickness x scan speed x hatch distance x number of lasers. The value represents a com-parable indicator but remains a theoretical value after all. It does expressively not reflect true build rates, which are influenced by part geometry, ratio between hatch and contour areas, area of exposure, recoating times, and more.

Case Studies

ABB Reduces Cooling and Cycle Times With Additive Design Optimization
Tooling
ABB Reduces Cooling and Cycle Times With Additive Design Optimization
Download Case Study
Revolutionizing Nozzle Claw Manufacturing
Tooling
Revolutionizing Nozzle Claw Manufacturing
Download Case Study
How an Engine Hood Light Hinge Was 3D Printed
automotive
How an Engine Hood Light Hinge Was 3D Printed
Download Case Study