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  • Wire Arc Additive Manufacturing
    Wire arc additive manufacturing enables fast and highly efficient production processes. Discover best quality wire alloys for a revolutionary technology.

Best Quality Wire Alloys for a Revolutionary Technology

With the manufacturing of wires which are tailor-made to its specific purpose, voestalpine Böhler Welding is creating the basis for innovative Wire Arc Additive Manufacturing. The metallurgical and application knowhow of its materials specialists makes the company a central element in this technological revolution.

A revolutionary technology shapes the future of our life

Wire arc additive manufacturing enables fast and highly efficient production processes replacing conventional technologies as casting and forging. The machining effort like milling and drilling is reduced to a minimum due to a near-netshape using WAAM. Lead times can be reduced dramatically by high utilization of the wire consumables and by simplification of the production process in general.

3D print applications

Especially as the Wire arc additive manufacturing is based on the well-known technology of joining and cladding materials with a wide range of commercialy available wire consumables from unalloyed, mid- and high alloyed steels. But also nickel- and cobalt base alloys can be used and combined, if metallurgical reasonable, to gradient structured parts.

Given the typical layer thickness applied, Wire Arc Additive Manufacturing is – compared to powder-based Additive Manufacturing – more suitable to generate low to medium complexity and up to large scale preform components. Due to a wide range of parameter settings it is possible to reach high deposition rates with rates up to 5kg/h, so that the production of large scale parts is feasible within reasonable time frames.

Depending on the material alloy group, heat treatments and post-machining is usually required to give the components the final properties.

Wire arc additive product overview

Product name Short description Material Type Data Sheet - DE Data Sheet - EN
3Dprint AM 35 WAAM solid wire, unalloyed S355 - 10Mn4 - 1.1108
3Dprint AM 46 WAAM solid wire, unalloyed S460 - 8MnSi7 - 1.5113
3Dprint AM 50 WAAM solid wire, low-alloyed, cryogenic S500 - 10NiMnSi5-5
3Dprint AM 62 WAAM solid wire, low-alloyed, high strength S620 - 10MnNiMoSi6-4-4
3Dprint AM 70 WAAM solid wire, low-alloyed, high strength S700 - 8MnNiMoCrSi7-6-5
3Dprint AM 35 WAAM solid wire, unalloyed S355 - 10Mn4 - 1.1108
3Dprint AM 46 WAAM solid wire, unalloyed S460 - 8MnSi7 - 1.5113
3Dprint AM 50 WAAM solid wire, low-alloyed, cryogenic S500 - 10NiMnSi5-5
3Dprint AM 62 WAAM solid wire, low-alloyed, high strength S620 - 10MnNiMoSi6-4-4
3Dprint AM 70 WAAM solid wire, low-alloyed, high strength S700 - 8MnNiMoCrSi7-6-5
3Dprint AM 80 HD WAAM solid wire, low-alloyed, high strength S800 - 10NiMnMoCr8-7-6
3Dprint AM 90 WAAM solid wire, low-alloyed, high strength S890 - 10MnNiMoCrSi7-9-6
3Dprint AM P22 WAAM solid wire, low-alloyed, creep resistant P22 - 10CrMo9-10 - 1.7339
3DPRINT AM TS 12 WAAM solid wire, low-alloyed, creep resistant CrMoWV12 - CrMoV12-1
3Dprint AM Tool 40 WAAM solid wire, low-alloyed, wear resistant FE3 - 40-T
3Dprint AM Tool 45 WAAM solid wire, low-alloyed, wear resistant FE3 - 40-T
3Dprint AM Tool 55 WAAM solid wire, low-alloyed, wear resistant Fe8 - 55-ST
3Dprint AM 2205 WAAM solid wire, stainless, high- alloyed, duplex S31803 - S322205 - X2CrNiMoN22-5-3 - 1.4462
3Dprint AM 2207 WAAM solid wire, stainless, high- alloyed, duplex ER2207 - 1.4501
3Dprint AM 2209 WAAM solid wire, stainless, high- alloyed, duplex ER2209 - X2CrNiMoN22-9-3 - ~1.4462
3Dprint AM 2594 WAAM solid wire, stainless, high- alloyed, duplex ER2594
3Dprint AM 304L WAAM solid wire, stainless,austenitic AISi 304 - X2CrNi19-11 - 1.4306
3Dprint AM 316L WAAM solid wire, stainless,austenitic AISi 316L - X2CrNiMo17-12-2 - 1.4404
3Dprint AM 316L Si WAAM solid wire, stainless,austenitic AiSi 316LSi - 1.4430
3Dprint AM 316L Cryo2 WAAM solid wire, stainless, low temperature AiSi 316L - X2CrNiMo17-12-2 - 1.4404
3Dprint AM 410 NiMo WAAM solid wire, stainless, martensitic AISi 410 - X3CrNi13-4
3Dprint AM 410 NiMo mod WAAM solid wire, stainless, martensitic AiSi 410 - X3CrNi13-4 (Si)
3Dprint AM 16-5-1 WAAM solid wire, stainless, martensitic AISI 248 SV - AISI 420 - CrNiMo 16 5 1
3Dprint AM 15-5 PH WAAM solid wire, stainless, martensitic S15500 - AMS 5659 - AMS 5862 - 1.4545 - X5CrNiCu15-5
3Dprint AM 17-4 PH WAAM solid wire, stainless, martensitic AISi 630 - S17400 - X5CrNiCuNb17-4-4 - 1.4548
3Dprint AM 430 WAAM solid wire, stainless, high- alloyed, ferritic AISi 430 - S43000 - X6Cr17 - 1.4016
3Dprint AM 625 WAAM solid wire, stainless, Ni-alloy Alloy 625 - N6625 - AMS5869 - NiCr22Mo9Nb - 2.4831
3Dprint AM 718 WAAM solid wire, stainless, Ni-alloy Alloy 718 - Ni19Fe19Nb5Mo3 - N7718 - 2.4668
3Dprint AM 059 WAAM solid wire, stainless, Ni-alloy NiCr23Mo16 - ERNiCrMo-13 - 2.4607
3DPRINT AM Mold 36 WAAM solid wire, high-alloyed, iron-base FeNi36 - UNS K93600 / K93601 - 1.3912
3Dprint AM Al 2219 WAAM solid wire, aluminium AlCu6MnZrTi - Al2219
3Dprint AM Cu 6327 WAAM solid wire, Cu-alloy UNS C63270 - Cu6327 - 2.0922
3Dprint AM Cu 6328 WAAM solid wire, Cu-alloy CuAl9Ni5 - C63280 - Cu6328 - 2.0923
3Dprint AM Ti-2 WAAM solid wire, titanium Ti0120 - Titan Grade 2 - Ti99,6 - UNS R50120 - 3.7035
3Dprint AM Ti-5 WAAM solid wire, titanium Ti6402 - Titan Grade 5 - TiAl6V4B - R56400 - 3.7175

Key Benefits for Wire Arc Additive Manufacturing

  • Wide range of deposition rates (low to high)
  • Near-Net shape and therefore reduced material loss
  • Conventional machining time reduced to minimum
  • Reduced lead times
  • Good structural integrity
  • Low to medium complexity components

For Demanding Industries

  • Mechanical engineering & machinery
  • Oil & gas upstream and offshore
  • Chemical industry
  • Power generation
  • Aerospace

Cooperation for Material and Technology Research

Together with its industrial and scientific partners, voestalpine Böhler Welding has initiated R&D programs to explore the application behavior of wire consumables in Wire Arc Additive Manufacturing. Results will allow to further optimize the wire consumables and to develop alloy compositions for the next generation 3D printing applications.