Advanced Manufacturing Techniques for Lightweight Muon Spectrometer Support Structures in the FCC Project

With the rising demand for efficient, lightweight support structures in high-energy physics experiments, advanced manufacturing techniques and material optimization are key to achieving high-performance designs. This study focuses on the application of generative design and topological optimization in the development of support structures for the FCC muon spectrometer. By leveraging these methods, we maximized material efficiency and minimized weight while ensuring structural integrity and meeting strict design constraints, including non-magnetic properties, minimal deformation, and high precision. A detailed evaluation was conducted with respect to manufacturing techniques that balance perfor-mance with cost-effectiveness, resulting in multiple design iterations of optimized truss configurations. This approach demonstrates the potential of modern manufacturing technologies in enhancing the structural and economic viability of components for large-scale scientific equipment.

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Publication Details

Journal
MANUFACTURING TECHNOLOGY
Published
2024-12-16
DOI
https://doi.org/10.21062/mft.2024.101
Primary Topic
Graphite, nuclear technology, radiation studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Advanced Manufacturing Techniques for Lightweight Muon Spectrometer Support Structures in the FCC Project

Martin Dub, František Lopot, P. Malý, Jan Brajer
MANUFACTURING TECHNOLOGY
Graphite, nuclear technology, radiation studies
article

Advanced Manufacturing Techniques for Lightweight Muon Spectrometer Support Structures in the FCC Project

Martin Dub, František Lopot, P. Malý, Jan Brajer
article en

Abstract

With the rising demand for efficient, lightweight support structures in high-energy physics experiments, advanced manufacturing techniques and material optimization are key to achieving high-performance designs. This study focuses on the application of generative design and topological optimization in the development of support structures for the FCC muon spectrometer. By leveraging these methods, we maximized material efficiency and minimized weight while ensuring structural integrity and meeting strict design constraints, including non-magnetic properties, minimal deformation, and high precision. A detailed evaluation was conducted with respect to manufacturing techniques that balance perfor-mance with cost-effectiveness, resulting in multiple design iterations of optimized truss configurations. This approach demonstrates the potential of modern manufacturing technologies in enhancing the structural and economic viability of components for large-scale scientific equipment.

MANUFACTURING TECHNOLOGYVol. 24(6)
CERN
Openalex Percentile: Top 85%
Graphite, nuclear technology, radiation studies
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