DMG Mori LASERTEC 30 SLM
Key Specifications
X Travel
Y Travel
Z Travel
build volume
focus diameter
layer thickness min
Overview
The DMG Mori LASERTEC 30 SLM is a laser powder bed fusion machine — selective laser melting — that builds metal parts layer by layer from powder rather than cutting them from stock. It sits in the same product family as the company's subtractive machine tools and shares its control environment with them, which is much of the appeal for a shop adding additive alongside milling and turning rather than treating it as a separate discipline.
Build volume is 325 × 325 × 400 mm (12.8 × 12.8 × 15.7 in), matching the X, Y and Z travels. That is a mid-size chamber: large enough for structural brackets, manifolds, conformally cooled tooling inserts and nested batches of smaller parts, and tall enough at 400 mm that height is rarely the dimension forcing a part redesign. Maximum workpiece weight is 400 kg (881.8 lb), which on a powder bed machine covers the build plate and supports as well as the part.
Laser configuration is where the machine scales. Maximum laser power is 1,000 W, available in single-, dual- or quad-laser form with high-precision optics and full overlap. Full overlap is the detail that matters: any laser can reach any point on the plate, so additional lasers speed up a single large part rather than only helping when several parts are nested apart from each other.
Focus diameter is 80 µm (0.0031 in) and minimum layer thickness 30 µm (0.0012 in). That pairing favours fine features and surface quality over raw build rate — thin layers mean more passes per millimetre of height, so parts justifying this configuration are ones where detail resolution, not throughput, drives the business case.
Recoating is bi-directional with a collision protection system, so the recoater spreads powder in both directions instead of returning empty, and a snagged recoater halts the build instead of ruining it. Powder is handled through the rePLUG exchangeable module with integrated recycling, one material per module. That is what makes running several alloys practical without cross-contamination, but it also means every alloy in production needs its own module — a real cost input when planning a mixed-material portfolio. The machine runs CELOS X with easyAM.
Full Specifications
| Parameter | Value |
|---|---|
| Build Volume | 325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in) |
| X-Axis Travel | 325 mm (12.8 in) |
| Y-Axis Travel | 325 mm (12.8 in) |
| Z-Axis Travel | 400 mm (15.7 in) |
| Focus Diameter | 80 µm (0.0031 in) |
| Layer Thickness Min | 30 µm (0.0012 in) |
| Laser Power Max | 1,000 W |
| Laser Configuration | Single-, Dual- or Quad-Laser with high-precision optics and full overlap |
| Max Workpiece Weight | 400 kg (881.8 lb) |
| Recoating | Bi-directional recoating with collision protection system |
| Powder Handling | rePLUG exchangeable powder module with integrated powder recycling (one material per rePLUG) |
| CNC Control | CELOS X with easyAM |
Specifications sourced from us.dmgmori.com — verified 2026-08-09
Strengths & Limitations
Strengths
- Build volume of 325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in) is tall enough that height rarely forces a part redesign, and wide enough for nested batches of smaller parts
- Laser configuration scales from single to dual to quad with full overlap, so any laser can reach any point on the plate - extra lasers speed up a single large part, not only nested ones
- Maximum laser power is 1,000 W, through high-precision optics
- An 80 µm (0.0031 in) focus diameter with a 30 µm (0.0012 in) minimum layer thickness favours fine features and surface quality
- Bi-directional recoating spreads powder in both directions instead of returning empty, and the collision protection system halts a snagged recoater rather than ruining the build
- The rePLUG exchangeable powder module with integrated recycling makes running several alloys practical without cross-contamination
Limitations
- One material per rePLUG module, so every alloy in production needs its own module - a real cost input when planning a mixed-material portfolio
- Thin layers mean more passes per millimetre of height, so the 30 µm minimum layer thickness that gives the resolution also caps build rate
- Maximum workpiece weight is 400 kg (881.8 lb), and on a powder bed machine that covers the build plate and supports as well as the part itself
- A build volume of 325 x 325 x 400 mm is mid-size; parts beyond it need a larger platform entirely rather than a configuration change
- Laser powder bed fusion does not remove post-processing - stress relief, plate removal, support removal and finish machining still follow every build
Best For
Frequently Asked Questions
01
Build volume is 325 x 325 x 400 mm (12.8 x 12.8 x 15.7 in), matching the X, Y and Z travels. That covers structural brackets, manifolds, conformally cooled tooling inserts and nested batches of smaller parts, and at 400 mm tall, height is rarely the dimension forcing a redesign. Maximum workpiece weight is 400 kg (881.8 lb), which includes the build plate and supports.
02
Single-, dual- and quad-laser configurations are offered, with high-precision optics and full overlap. Full overlap is the detail that matters: any laser can reach any point on the plate. That means additional lasers accelerate a single large part rather than only helping when several parts are nested apart from each other. Maximum laser power is 1,000 W.
03
Focus diameter is 80 µm (0.0031 in) and minimum layer thickness 30 µm (0.0012 in). That pairing favours fine features and surface quality over raw build rate, since thin layers mean more passes per millimetre of height. Parts that justify this configuration are ones where detail resolution rather than throughput drives the business case.
04
Through the rePLUG exchangeable powder module with integrated powder recycling, one material per module. That is what makes running several alloys practical without cross-contamination. The trade-off is that every alloy in production needs its own module, which becomes a real cost input when planning a mixed-material portfolio.
05
The machine does not shorten the usual additive workflow: stress relief, removal from the build plate, support removal and finish machining of critical surfaces all still follow. DMG Mori's argument is that the LASERTEC shares its CELOS X control environment with the company's subtractive machines, so a shop can keep the whole chain in-house rather than treating additive as a separate discipline.
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