MADISON - Additive Manufacturing, Digitalization, and Sustainability

Participants:

 

Programme:

Centros Tecnológicos de Excelencia "Cervera"

Sectors:

Aeronautics-Aerospace

Machine-Tool

Oil&Gas

Health

Technologies:

Control and Robotics

DED-Arc

DED-LB

PBF-LB

Computer vision

Scope


The general objective of the MADISON group, a continuation of the CEFAM 2020-2022 project, is to enhance the participation of centers in the AM value chain. The plan includes:

  • Addressing the current research challenges in AM technologies when applied to metallic materials.
  • Increasing the impact of excellence in training for the staff of participating centers and attracting talent.
  • Creating strategies for dynamization, transfer, dissemination, or industrial/intellectual protection, and using them to enhance the reach of the results to both the scientific community and companies.

At a technical level, the project addresses the fabrication of five different types of materials (Ti64 and alloys, Cu and alloys, conventional Al alloys, steels and Fe-based alloys, and Ni alloys) through the simulation and fabrication of powders and the additive manufacturing of raw materials.
Additionally, incremental improvements will be made to AM technologies (PBF-LB, PBF-EB/M, DED-LB/M, DED-Arc/M, Hybrid (DED-LB/M + conventional technologies), BJT/M); and improvements will be proposed for material processability (depending on process conditions, post-processes, and characterization methods of manufactured parts).
For the new materials developed, non-destructive inspection methodologies and technologies will also be designed. Finally, an analysis of the sustainability of the new (or improved) AM processes will be carried out.

Solution

The scientific and technological objectives proposed in this program by Lortek are listed below:

  • Study of the processing of new materials: Alloys with ceramic reinforcement, custom alloys via in-situ reaction, and Cu alloys.
  • Development of meta-materials with customized properties through the design of new periodic structure concepts.
  • Inspection systems, surface scanning, volume generation, and trajectories for advanced repair methodologies.
  • Simulation of the deposition process aimed at predicting and optimizing process parameters and mechanical properties.
  • Development of quality assurance strategies through the management and analysis of monitored data.
  • Sustainability in raw materials: Analysis of the reuse of metallic powder after use.