Exploration of strategic fundamental pillars for unlocking key potential of metal hybrid 3D printing

Project Details

Description

Within the research area of hybrid metal 3D printing, Prof De Baere
focuses on the development of Directed Energy Deposition as a metal 3D
printing technology. Maximum residual stress avoidance is an inherent
core competency of this technology which is very important for the
further development of Prof. De Baere's track record and the
deployment of our available unique hybrid 3D printing infrastructure. In
addition, further expansion of the portfolio of smart components
produced with hybrid metal printing technologies is crucial. This will
allow our group to further develop another unique patented asset and
lead to research innovation and collaboration with internal VUB partners
and external groups on this core competence.
In summary, the primary objective of the project is to further unlock the
unique potential of our advanced hybrid metal 3D printer in 2
complementary domains. The intention is to make optimal use of the
start-up bonus funding to leverage additional PhD project applications
where key technologies can be further researched and developed. In this
way, we aim to both optimize the potential of our research infrastructure
and strengthen the further development of fundamental knowledge.
AcronymOZR4367
StatusActive
Effective start/end date1/12/2430/11/28

Keywords

  • hybrid additive manufacturing
  • Metal additive manufacturing
  • residual stress
  • structural health monitoring
  • load sensing

Flemish discipline codes in use since 2023

  • Smart lightweight structures
  • Manufacturing processes, methods and technologies
  • Manufacturing engineering not elsewhere classified
  • Continuum mechanics
  • Mechanics not elsewhere classified
  • Sensing, estimation and actuating
  • Signals and systems
  • Software and data acquisition

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