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Robotic coreless filament winding for hyperboloid tubular composite components in construction
Abstract Novel fabrication methods are necessary to capitalize on the high strength-to-weight ratio of composites engineered for construction applications. This paper presents prefabrication strategies for geometrically-complex building elements wound out of Glass and Carbon Fiber Reinforced Polymers (G/CFRP). The research focuses on Robotic Coreless Filament Winding (RCFW), a technology that eliminates formwork, proposing upscaling and industrialization strategies combined with updated robot programming and control methods. Our application addresses the prefabrication of hyperboloid, tubular components with differentiated geometry and fiber layout. We examine how the proposed methods enabled the industrial prefabrication of a building-scale G/CFRP dome structure and discuss the industrial process relative to key fabrication parameters. Highlighting the interdisciplinary nature of the research, we envisage future directions and applications for RCFW in construction. Overall, we find that synergy between academia and industry is essential to meeting research, productivity, and certification goals in the rather conservative building industry.
Highlights The state of the art in automated manufacturing methods for composite construction is examined The need to develop flexible industrial prefabrication methods for large-scale building elements is identified A scalable, automated coreless filament winding application for hyperboloid tubular composite components is characterized An industrial prefabrication case study is discussed in regard to industry-relevant criteria The composite manufacturing technology meets industrialization standards for a prefabrication plant in construction
Robotic coreless filament winding for hyperboloid tubular composite components in construction
Abstract Novel fabrication methods are necessary to capitalize on the high strength-to-weight ratio of composites engineered for construction applications. This paper presents prefabrication strategies for geometrically-complex building elements wound out of Glass and Carbon Fiber Reinforced Polymers (G/CFRP). The research focuses on Robotic Coreless Filament Winding (RCFW), a technology that eliminates formwork, proposing upscaling and industrialization strategies combined with updated robot programming and control methods. Our application addresses the prefabrication of hyperboloid, tubular components with differentiated geometry and fiber layout. We examine how the proposed methods enabled the industrial prefabrication of a building-scale G/CFRP dome structure and discuss the industrial process relative to key fabrication parameters. Highlighting the interdisciplinary nature of the research, we envisage future directions and applications for RCFW in construction. Overall, we find that synergy between academia and industry is essential to meeting research, productivity, and certification goals in the rather conservative building industry.
Highlights The state of the art in automated manufacturing methods for composite construction is examined The need to develop flexible industrial prefabrication methods for large-scale building elements is identified A scalable, automated coreless filament winding application for hyperboloid tubular composite components is characterized An industrial prefabrication case study is discussed in regard to industry-relevant criteria The composite manufacturing technology meets industrialization standards for a prefabrication plant in construction
Robotic coreless filament winding for hyperboloid tubular composite components in construction
Bodea, Serban (Autor:in) / Zechmeister, Christoph (Autor:in) / Dambrosio, Niccolo (Autor:in) / Dörstelmann, Moritz (Autor:in) / Menges, Achim (Autor:in)
23.02.2021
Aufsatz (Zeitschrift)
Elektronische Ressource
Englisch
Material monitoring of a composite dome pavilion made by robotic coreless filament winding
DataCite | 2021
|British Library Online Contents | 2016
|British Library Online Contents | 2016
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