Projects per year
Project Details
Description
By locally varying the density, HyPo-components achieve significant weight reduction in low-stress areas, resulting in improved efficiency, particularly under dynamic stress. The hybrid material approach offers additional benefits by allowing the selective adjustment of material-specific properties. For example, high-stress areas can be reinforced for increased strength, while areas subject to thermal stress can have enhanced temperature resistance.
The CRC/TRR extends these approaches to include multifunctionality, so that HyPo-components achieve a significant performance increase compared to conventional approaches. For example, the integration of areas with variable magnetic properties opens possibilities for creating sensor systems within the components themselves. In summary, a comprehensive understanding of HyPo-structures expands component design by considering density variability, material properties, and multifunctionality, leading to a new level of application-optimised product design.
The underlying scientific questions are highly interdisciplinary. To gain comprehensive knowledge regarding the manufacturing, design and characterisation of HyPo-components, close cooperation between the disciplines manufacturing technology, materials technology, metrology, mechanics, design and computer science is required. Only through this interdisciplinary cooperation can a fundamental understanding of the characteristics and correlations between manufacturing parameters and material properties be achieved.
In the future, multifunctional hybrid and porous high-performance components are expected to make significant contributions to resource-saving and environmentally friendly products and manufacturing processes. They will enhance the energy efficiency and performance of a wide range of products, ensure product safety through component-integrated sensor technology, and facilitate data acquisition in the context of digitisation.
| Acronym | HyPo |
|---|---|
| Status | Active |
| Effective start/end date | 1 Apr 2024 → 31 Dec 2027 |
Collaborative partners
- Leibniz University Hannover
- University of Kaiserslautern-Landau (RPTU) (lead)
- Technische Universität Darmstadt (Project partner)
- Fraunhofer Institute for Industrial Mathematics (ITWM) (Project partner)
- German National Library of Science and Technology (TIB) (Project partner)
Funding type
- German Research Foundation (DFG)
Funding scheme
- Collaborative Research Centres/Transregios
Projects
- 10 Active
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HyPo: Collaborative Research Centre-Transregio 375, sub-project B05: Model-based path planning and control
Seewig, J. (Principal Investigator) & Raatz, A. (Principal Investigator)
1 Apr 2024 → 31 Dec 2026
Project: Research
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HyPo: Collaborative Research Centre-Transregio 375, sub-project C03: Characterisation of hybrid porous materials for process design
Hinz, L. (Principal Investigator) & Seewig, J. (Principal Investigator)
1 Apr 2024 → 31 Dec 2026
Project: Research
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HyPo: Collaborative Research Centre-Transregio 375, sub-project A05: Modelling of Laser Directed Energy Deposition considering the resulting properties of hybrid porous structures
Böß, V. (Principal Investigator) & De Payrebrune, K. M. (Principal Investigator)
1 Apr 2024 → 31 Dec 2026
Project: Research
Research output
- 1 Editorial in journal
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Hybrid porous materials and components
Zimmermann, M., Nürnberger, F., Maier, H. J. & Aurich, J. C., 30 May 2026, In: Production Engineering. 20, 3, 73.Research output: Contribution to journal › Editorial in journal › Research › peer review
Open Access
Datasets
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X-ray microscopy scans of powder metallurgical AlSi10Mg foams
Mevert, J. (Related Person), Zinken, J. S. (Creator), Barienti, K. (Creator), Nürnberger, F. (Related Person), Klose, C. (Related Person), Maier, H. J. (Creator), Mevert, J. (Related Person), Zinken, J. S. (Related Person), Barienti, K. (Creator), Nürnberger, F. (Related Person), Klose, C. (Related Person), Maier, H. J. (Creator) & Mevert, J. (Related Person), LUIS, 2026
DOI: 10.25835/4ocr05xt
Dataset