DMG Mori LASERTEC 30 SLM 3rd Generation

$600,000 - $1,200,000 Updated 2026-03-19

Key Specifications

build volume

325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in)

laser power

Up to 1,000 W

laser configurations

Single, dual, or quad laser

focus diameter

80 micrometers

layer thickness

30 micrometers minimum

max workpiece weight

400 kg881.8 lbs.

Overview

The DMG Mori LASERTEC 30 SLM 3rd Generation represents the latest evolution of DMG Mori's flagship powder bed fusion platform, delivering a 325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in) build volume that substantially exceeds the 2nd Generation's 300 x 300 x 300 mm envelope. This machine targets production-grade metal AM for aerospace turbine components, medical implants, and complex tooling inserts where build volume and part quality both matter.

The 3rd Generation brings up to 1,000 W of laser power with single-, dual-, or quad-laser configurations. The quad-laser option dramatically accelerates build times on full-plate builds by dividing the build area among four independently controlled beams. Each laser achieves a focus diameter of 80 micrometers, delivering the resolution needed for thin walls, lattice structures, and fine surface detail on production parts.

DMG Mori's thermosymmetric casting frame sets this machine apart from competitors using welded sheet metal enclosures. The floating process chamber with active temperature compensation maintains consistent thermal conditions throughout multi-day builds, reducing residual stress and warpage on large components. An integrated powder bed monitoring system detects anomalies during the build process, enabling real-time quality assurance.

Minimum layer thickness of 30 micrometers provides a good balance between surface quality and build speed. Maximum workpiece weight including the build plate reaches 400 kg (882 lb), accommodating dense metal builds in materials like Inconel 718, Ti-6Al-4V, stainless steel 316L, maraging steel, aluminum AlSi10Mg, and cobalt-chrome alloys.

The CELOS X interface with easyAM guided workflows simplifies build preparation, making the system accessible to operators who are not AM specialists. Build monitoring, parameter management, and post-build reporting are integrated into the same platform. Compared to the LASERTEC 30 SLM 2nd Generation, the 3rd Generation delivers a larger build volume, higher laser power options, and improved thermal management for more consistent part quality at production scale.

Full Specifications

Parameter	Value
Build Volume	325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in)
Laser Power	Up to 1,000 W
Laser Configurations	Single, dual, or quad laser
Focus Diameter	80 micrometers
Layer Thickness	30 micrometers minimum
Max Workpiece Weight	400 kg881.8 lbs.
Inert Gas	Argon or nitrogen
Materials	Inconel 718, Ti-6Al-4V, stainless steel 316L, maraging steel, AlSi10Mg, cobalt-chrome
Frame Construction	Thermosymmetric casting frame
Process Chamber	Floating chamber with active temperature compensation
Monitoring	Integrated powder bed monitoring for anomaly detection
CNC Control	CELOS X with easyAM guided workflows
325 Mm	12.8 in.
400 Mm	15.7 in.
30 M	0.0012 in.
80 M	0.0031 in.
1000 W	1000 W
400 Kg	881.8 lbs.

Specifications sourced from us.dmgmori.com — verified 2026-03-28

Strengths & Limitations

Strengths

325 x 325 x 400 mm build volume is a meaningful upgrade over the 2nd Generation, accommodating larger aerospace and medical components
Quad-laser configuration with up to 1,000 W total power dramatically reduces build times on full-plate production runs
Thermosymmetric casting frame and floating process chamber deliver thermal stability that welded-enclosure competitors cannot match
Integrated powder bed monitoring provides real-time anomaly detection for production quality assurance without external systems
CELOS X with easyAM guided workflows lowers the operator skill barrier for production AM environments
400 kg workpiece capacity handles dense builds in Inconel and titanium without weight limitations

Limitations

Starting price above $600K for single-laser configuration puts the entry cost higher than some competing SLM platforms
80-micrometer focus diameter is standard but not as fine as the LASERTEC 12 SLM's 35-micrometer spot for ultra-precision work
Quad-laser configuration adds significant cost and complexity to the initial investment and maintenance
DMG Mori's smaller installed base in AM compared to EOS and SLM Solutions means fewer community-validated parameter sets

Best For

Aerospace manufacturers producing turbine blades, fuel nozzles, and structural components requiring certified AM processes Medical device companies building production-volume titanium and cobalt-chrome implants, surgical guides, and instruments Tooling manufacturers producing conformal-cooled injection mold inserts and die casting tool inserts Job shops adding production-grade metal AM capability for prototyping and short-run manufacturing Energy sector manufacturers producing complex heat exchangers, burner tips, and turbine components

Frequently Asked Questions

01 What does a LASERTEC 30 SLM 3rd Generation cost?

Pricing typically ranges from $600,000 for a single-laser configuration to $1,200,000+ for a fully loaded quad-laser system with all monitoring and automation options. The laser count is the primary cost driver, with each additional laser adding roughly $150,000-$200,000.

02 How does the 3rd Generation compare to the 2nd Generation?

The 3rd Generation increases the build volume from 300 x 300 x 300 mm to 325 x 325 x 400 mm, adds quad-laser capability (up to 1,000 W), and introduces a thermosymmetric casting frame with floating process chamber for better thermal stability. The easyAM software workflow is also new.

03 What materials can the LASERTEC 30 SLM 3rd Generation process?

Standard materials include Inconel 718, Ti-6Al-4V, stainless steel 316L, maraging steel 1.2709, aluminum AlSi10Mg, and cobalt-chrome. DMG Mori and third-party material suppliers continue expanding validated parameter sets for additional alloys.

04 Is quad-laser worth the investment over single or dual?

Quad-laser configurations make economic sense when running full build plates with many parts or large components that utilize most of the 325 x 325 mm area. For shops running small builds or partial plates, dual-laser provides a good balance of speed and cost. Single-laser is appropriate for R&D and low-volume production.