Both SLM and DMLS technologies work similarly to SLS, but they use fine metal powder as the initial material instead of polymer granules.

DMLS does not melt the powder, but heats it up to a temperature close to melting point where molecular bonds are created. This technology is used for additive manufacturing from alloys.

SLM uses a high-performance laser to completely melt the material and thus creates a homogeneous product. SLM works with pure metals.

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Why is DMLS/SLM unique?

Thanks to printing space in an inert atmosphere with active production monitoring, it is possible to achieve high precision. The products achieve a theoretical density of virtually 100%, which means that they have similar properties as machined parts, cast parts or MIM. Processing of atypical metals and their alloys which are not readily available or easily processable by CNC technologies is a big advantage.

Work with metals and alloys without shape and technological limitations.
  • Use of atypical metals and their alloys
  • Complex shape production with minimum waste material
  • Mechanical properties similar to machined parts
  • Lightened and topologically optimised products
  • Parts can be further worked or welded

When is DMLS/SLM the most suitable?

  • Fully functional prototypes
  • Spare parts
  • Parts for aviation and automotive industry
  • Injection moulds and tools with internal conformal cooling
  • Specialised coolers and heat exchangers
  • Biocompatible medicine products

Which types of applications are the most suitable for DMLS and SLM technologies?

Technical parameters

Parameter Value
Avarage lead-time Mimimum 5 to 8 working days, depending on the size and number of components and amount of finishing works
Print accuracy ±0,1 mm
Layer thickness Randing from 10 to 100 micrometers
Minimum wall thickness 0,4 mm
Print volume 250 x 250 x 200 mm for materials stainless steel 316L and AlSi10Mg
Ø 100 x 100 mm for materials stainless steel 316L, AlSi10Mg, Inconel 718 a Ti64 degree 23
Surface quality

Parts after printing have gently rough surface from the top side and rough surface from the bottom side of the part. Support marks have to be manually removed.


Hard-to-machine metals and alloys with unique properties can be now manufactured easily thanks to additive technologies.

Stainless steel 316L – low-carbon alloy steel used as a standard, the second most used stainless steel. It is used inter alia in healthcare (surgical steel) or in food processing industry. It is sufficiently strong, hard and anti-corrosive. Download datasheet 

AlSi10Mg – an aluminium alloy combining high strength and extraordinary thermal properties with low weight and possibility of further machining. These properties make the alloy widely used in automotive and aviation industry and in automation. Its specific applications include casing, parts of engines, production tools and moulds. Download datasheet 

Inconel 718 – an anti-oxidant and anti-corrosive material suitable for extreme conditions and exposure to high pressure and temperatures. When the material is heated to a certain temperature, it creates a thick and consistent anti-oxidant surface layer which increases the surface protection of the material. Download datasheet 

Ti64 grade 23 – has high toughness and strength in air and in salt water. The strength is stable with an extremely long lifespan. It can be used in applications which require high fatigue strength and toughness. It is widely used primarily in aviation and construction industry as well as in medicine for the production of implants. Download datasheet 

Measured Parameter 316L Inconel 718 AlSi10Mg Ti6Al4V Degree 23
Ultimate tensile strength (as built) [MPa] 650 ± 50 950 ± 50 410 1140
Yield strength (Rp0,2%) [MPa] 550 ± 50 630 ± 50 240 1050
Elogation at break [%] 45 15 ± 2 5 ± 2 8 ± 2
Young´s Modulus [GPa] 170 170 ± 20 70 ± 5 110 ± 5
Hardness - 30 HRC 125 HB 37 HRC
Conductivity (20°C) [W/m*K] 16,2 11 145 6,8
Specific head capacity (20°C) [J/kg*K] 500 450 900 580
Melting point [°C] 1380 1280 560 1650

How does DMLS/SLM work

Video demonstrating the principle and application of the DMLS technology: