On additive manufactured alsi10mg to wrought aa6060-t6: Characterisation of optimal-and high-energy magnetic pulse welding conditions

Moshe Nahmany, Victor Shribman, Shlomo Levi, Dana Ashkenazi, Adin Stern

Research output: Contribution to journalArticlepeer-review

5 Scopus citations


This novel research aims to examine the macro and microstructural bonding region development during magnetic pulse welding (MPW) of dissimilar additive manufactured (AM) laser powder-bed fusion (L-PBF) AlSi10Mg rod and AA6060-T6 wrought tube, using both optimaland high-energy welding conditions. For that purpose, various joint characterisation methods were applied. It is demonstrated that high-quality hermetic welds are achievable with adjusted MPW process parameters. The macroscale analysis has shown that the joint interfaces are deformed to a waveform shape; the interface is starting relatively planar, with waves forming and growing in the welding direction. The observed thickening of the flyer’s wall after welding is the result of its diametral inward deformation, taking place during the process. A slight increase in microhardness was adjacent to the faying interfaces; a higher increase was measured on the AlSi10Mg material side, while a smaller one was observed on the AA6060 side. Along the wavy interfaces, resolidified “pockets” of material or occasionally discontinuous short layers exhibiting different morphologies, were detected. The jet residues are typically located towards the end of the weld, confirming a temperature rise that exceeds the melting temperature of both alloys. Far from the weld zone, extremely thin-film deposits were clearly observed on the inner flyer surfaces. The formation of isolated Si particles and thin-film deposits may point out that the local increase in temperatures leads to melting or even evaporation vaporisation of superficial layers from the colliding parts. It is worth noting that this type of jet residue was discovered for the first time in the present research. The current research work is expected to provide an understanding of weld formation mechanisms of additively manufactured parts to conventional wrought parts conforming to existing wrought/wrought weld knowledge.

Original languageEnglish
Article number1235
Pages (from-to)1-20
Number of pages20
Issue number9
StatePublished - 1 Sep 2020


  • Additive manufacturing laser powder-bed fusion
  • AlSi10Mg alloy
  • High-energy welding conditions
  • Magnetic pulse welding
  • Optimal-energy welding conditions
  • Wrought AA6060-T6

ASJC Scopus subject areas

  • Materials Science (all)


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