Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process

Moritz Kruse; Noomane Ben Khalifa

doi:10.21741/9781644902479-107

Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process

Publikation: Beiträge in Sammelwerken › Aufsätze in Konferenzbänden › Forschung › begutachtet

Standard

Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process. / Kruse, Moritz ; Ben Khalifa, Noomane.
Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023: ESAFORM 2023. Hrsg. / Lukasz Madej; Mateusz Sitko; Konrad Perzynsk. Band 28 MaterialsResearchForum LLC, 2023. S. 977-986 (Materials Research Proceedings; Band 28).

Publikation: Beiträge in Sammelwerken › Aufsätze in Konferenzbänden › Forschung › begutachtet

Harvard

Kruse, M & Ben Khalifa, N 2023, Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process. in L Madej, M Sitko & K Perzynsk (Hrsg.), Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023: ESAFORM 2023. Bd. 28, Materials Research Proceedings, Bd. 28, MaterialsResearchForum LLC, S. 977-986, 26th International ESAFORM Conference on Material Forming 2023, Kraków, Polen, 19.04.23. https://doi.org/10.21741/9781644902479-107

APA

Kruse, M., & Ben Khalifa, N. (2023). Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process. In L. Madej, M. Sitko, & K. Perzynsk (Hrsg.), Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023: ESAFORM 2023 (Band 28, S. 977-986). (Materials Research Proceedings; Band 28). MaterialsResearchForum LLC. https://doi.org/10.21741/9781644902479-107

Vancouver

Kruse M , Ben Khalifa N. Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process. in Madej L, Sitko M, Perzynsk K, Hrsg., Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023: ESAFORM 2023. Band 28. MaterialsResearchForum LLC. 2023. S. 977-986. (Materials Research Proceedings). doi: 10.21741/9781644902479-107

Bibtex

@inbook{d33ee65a1d214c12a2dba4acfd903e3c,

title = "Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process",

abstract = "Matrix accumulations, buckling and tearing of fibers and metal sheets are common defects in the deep drawing of fiber metal laminates. The previously developed in-situ hybridization process is a single-step method for manufacturing three-dimensional fiber metal laminates (FML). During the deep drawing of the FML, a low-viscosity thermoplastic matrix is injected into the dry glass fiber fabric layer using a resin transfer molding process. The concurrent forming and matrix injection results in strong fluid-structure interaction, which is not yet fully understood. To gain a better understanding of this interaction and identify possible adjustments to improve the process, an experimental form-filling investigation was conducted. Using a double dome deep drawing geometry, the forming and infiltration behavior were investigated at different drawing depths with full, partial, and no matrix injection. Surface strain measurements of the metal blanks, thickness measurements of the glass fiber-reinforced polymer layer, and optical analyses of the infiltration quality were used to evaluate the results.",

keywords = "Engineering, Fiber Metal Laminates, Deep Drawing, In-Situ Hybridization, Fluid-Structure Interaction",

author = "Moritz Kruse and {Ben Khalifa}, Noomane",

note = "The authors would like to thank the German Research Foundation (DFG) for funding the projects BE 5196/4-1 and BE 5196/4-2. The matrix system and hardener were kindly provided by the Arkema Group. The bonding agent was kindly provided by Evonik Industries AG. The authors would like to thank Mr. Marvin Gerdes for the help in performing experiments and Mr. Henrik O. Werner for the help in planning experiments and discussing results. Publisher Copyright: {\textcopyright} 2023, Association of American Publishers. All rights reserved.; 26th International ESAFORM Conference on Material Forming 2023, ESAFORM 2023 ; Conference date: 19-04-2023 Through 21-04-2023",

year = "2023",

month = apr,

day = "19",

doi = "10.21741/9781644902479-107",

language = "English",

volume = "28",

series = "Materials Research Proceedings",

publisher = "MaterialsResearchForum LLC",

pages = "977--986",

editor = "Lukasz Madej and Mateusz Sitko and Konrad Perzynsk",

booktitle = "Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023",

address = "United States",

url = "https://esaform2023.agh.edu.pl/",

}

RIS

TY - CHAP

T1 - Experimental investigation of the fluid-structure interaction during deep drawing of fiber metal laminates in the in-situ hybridization process

AU - Kruse, Moritz

AU - Ben Khalifa, Noomane

N1 - Conference code: 26

PY - 2023/4/19

Y1 - 2023/4/19

N2 - Matrix accumulations, buckling and tearing of fibers and metal sheets are common defects in the deep drawing of fiber metal laminates. The previously developed in-situ hybridization process is a single-step method for manufacturing three-dimensional fiber metal laminates (FML). During the deep drawing of the FML, a low-viscosity thermoplastic matrix is injected into the dry glass fiber fabric layer using a resin transfer molding process. The concurrent forming and matrix injection results in strong fluid-structure interaction, which is not yet fully understood. To gain a better understanding of this interaction and identify possible adjustments to improve the process, an experimental form-filling investigation was conducted. Using a double dome deep drawing geometry, the forming and infiltration behavior were investigated at different drawing depths with full, partial, and no matrix injection. Surface strain measurements of the metal blanks, thickness measurements of the glass fiber-reinforced polymer layer, and optical analyses of the infiltration quality were used to evaluate the results.

AB - Matrix accumulations, buckling and tearing of fibers and metal sheets are common defects in the deep drawing of fiber metal laminates. The previously developed in-situ hybridization process is a single-step method for manufacturing three-dimensional fiber metal laminates (FML). During the deep drawing of the FML, a low-viscosity thermoplastic matrix is injected into the dry glass fiber fabric layer using a resin transfer molding process. The concurrent forming and matrix injection results in strong fluid-structure interaction, which is not yet fully understood. To gain a better understanding of this interaction and identify possible adjustments to improve the process, an experimental form-filling investigation was conducted. Using a double dome deep drawing geometry, the forming and infiltration behavior were investigated at different drawing depths with full, partial, and no matrix injection. Surface strain measurements of the metal blanks, thickness measurements of the glass fiber-reinforced polymer layer, and optical analyses of the infiltration quality were used to evaluate the results.

KW - Engineering

KW - Fiber Metal Laminates

KW - Deep Drawing

KW - In-Situ Hybridization

KW - Fluid-Structure Interaction

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U2 - 10.21741/9781644902479-107

DO - 10.21741/9781644902479-107

M3 - Article in conference proceedings

VL - 28

T3 - Materials Research Proceedings

SP - 977

EP - 986

BT - Material Forming - The 26th International ESAFORM Conference on Material Forming – ESAFORM 2023

A2 - Madej, Lukasz

A2 - Sitko, Mateusz

A2 - Perzynsk, Konrad

PB - MaterialsResearchForum LLC

T2 - 26th International ESAFORM Conference on Material Forming 2023

Y2 - 19 April 2023 through 21 April 2023

ER -