Accelerated Additive Manufacturing: Digital Discovery of a New Process Generation
ExcelAM aims to revolutionize Laser Powder Bed Fusion by developing advanced computational models and data-driven approaches to significantly increase build rates and enhance manufacturing capabilities.
Projectdetails
Introduction
Additive Manufacturing (AM) by Laser Powder Bed Fusion (LPBF) has the potential to revolutionize future product development, design, and supply chains. Since the underlying multi-scale physics are not well understood, its potential cannot presently be exploited.
Challenges in LPBF
Sub-optimal process conditions lead to severe defects on different scales, rendering parts unsuitable for use. Critically, known regimes of stable processing go along with very low build rates, i.e., very high costs compared to other processes. This limits LPBF to selected high-value applications such as medical devices but prohibits applications in mass production where it otherwise could allow for entirely new technologies.
Project Goals
ExcelAM aims at the digital discovery of novel high-throughput process regimes in LPBF, to increase build rates by at least one order of magnitude.
Computational Modeling
Computational modeling would be perfectly suited for this purpose since it allows for:
- Observing physics that are not accessible to measurement.
- Studying novel process technologies that are not feasible with existing hardware.
Unfortunately, existing computational tools are by far not powerful enough, given the complexity of LPBF.
Methodologies Development
Therefore, ExcelAM will develop novel game-changing methodologies, grouped into two main classes:
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High-Fidelity Multi-Physics Models: Novel high-fidelity multi-physics models will be developed, capturing the complex multi-scale nature of LPBF. These are combined with cutting-edge high-performance computing schemes, allowing for predictions on unprecedented time spans and system sizes.
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Data-Based Learning Approaches: Novel data-based learning approaches will be developed to enrich the physical models with process data, while exploiting the manifold of existing data as effectively as possible.
Impact
Based on these cutting-edge tools, ExcelAM will push the limits of LPBF. Moreover, by making them publicly available, ExcelAM will help scientists and practitioners in the field of production engineering and beyond to face the technological challenges of the 21st century.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.484.926 |
Totale projectbegroting | € 1.484.926 |
Tijdlijn
Startdatum | 1-1-2024 |
Einddatum | 31-12-2028 |
Subsidiejaar | 2024 |
Partners & Locaties
Projectpartners
- TECHNISCHE UNIVERSITAET MUENCHENpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
Project | Regeling | Bedrag | Jaar | Actie |
---|---|---|---|---|
Engineering light induced phase change for emerging nanoscale processesThis project aims to develop a physics-based platform for controlling light-induced phase change to enhance additive manufacturing, nanomedicine, and solar energy applications through multiscale modeling and experimentation. | ERC Advanced... | € 2.485.500 | 2024 | Details |
Heterogeneities-guided alloy design by and for 4D printingHeteroGenius4D aims to develop tailored alloys for additive manufacturing by leveraging microstructural heterogeneities to enhance performance and enable 4D printing through integrated computational materials engineering. | ERC Starting... | € 1.499.999 | 2024 | Details |
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Additive Micromanufacturing: Multimetal Multiphase Functional ArchitecturesAMMicro aims to develop robust 3D MEMS devices using localized electrodeposition and advanced reliability testing to enhance damage sensing and impact protection for diverse applications. | ERC Starting... | € 1.498.356 | 2023 | Details |
Innovative digital twin concept of complex microstructure evolution in multi-component materialsmuTWIN aims to develop a digital twin for predicting microstructure evolution in metal additive manufacturing, enhancing design flexibility and reducing time-to-market for advanced materials. | ERC Proof of... | € 150.000 | 2023 | Details |
Engineering light induced phase change for emerging nanoscale processes
This project aims to develop a physics-based platform for controlling light-induced phase change to enhance additive manufacturing, nanomedicine, and solar energy applications through multiscale modeling and experimentation.
Heterogeneities-guided alloy design by and for 4D printing
HeteroGenius4D aims to develop tailored alloys for additive manufacturing by leveraging microstructural heterogeneities to enhance performance and enable 4D printing through integrated computational materials engineering.
Atomic-layer additive manufacturing for solar cells
The ALAMS project aims to prototype solar cell microdevices using atomic-layer additive manufacturing (ALAM) to enhance precision and scalability in solar technology.
Additive Micromanufacturing: Multimetal Multiphase Functional Architectures
AMMicro aims to develop robust 3D MEMS devices using localized electrodeposition and advanced reliability testing to enhance damage sensing and impact protection for diverse applications.
Innovative digital twin concept of complex microstructure evolution in multi-component materials
muTWIN aims to develop a digital twin for predicting microstructure evolution in metal additive manufacturing, enhancing design flexibility and reducing time-to-market for advanced materials.
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Multi Material Additive Manufacturing with Electrostatic Cold SprayMadeCold aims to revolutionize additive manufacturing by developing a novel solid state deposition process that enhances efficiency, scalability, and material versatility for aerospace, energy, and hybrid sectors. | EIC Pathfinder | € 2.915.568 | 2024 | Details |
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Metal Additive Manufacturing with sinter-based Cold Metal Fusion Technology for mass production of metal partsCMF is a patented process that combines sinter-based Powder Metallurgy with Selective Laser Sintering, enabling cost-effective, scalable production of complex metal parts using existing plastic AM machines. | EIC Accelerator | € 2.099.562 | 2022 | Details |
Multi Material Additive Manufacturing with Electrostatic Cold Spray
MadeCold aims to revolutionize additive manufacturing by developing a novel solid state deposition process that enhances efficiency, scalability, and material versatility for aerospace, energy, and hybrid sectors.
Advanced (Very) Large Scale Additive Manufacturing met Bioplastics
TPE en RB ontwikkelen bioplastics en ALSAM-technologie voor seriematige productie in kustbescherming, meubelindustrie en bouw, om een nieuwe markt voor grootschalig 3D-printen te creëren.
ADDITIVE TO PREDICTIVE MANUFACTURING FOR MULTISTOREY CONSTRUCTION USING LEARNING BY PRINTING AND NETWORKED ROBOTICS
AM2PM aims to revolutionize multistorey construction through 3D concrete printing, achieving 50% material reduction and significant CO2 savings while enhancing sustainability and efficiency.
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Metal Additive Manufacturing with sinter-based Cold Metal Fusion Technology for mass production of metal parts
CMF is a patented process that combines sinter-based Powder Metallurgy with Selective Laser Sintering, enabling cost-effective, scalable production of complex metal parts using existing plastic AM machines.