Degradation Processes of UHPFRC under Cyclic Tensile Loading

Research output: Chapter in book/report/conference proceedingConference contributionResearchpeer review

Authors

  • Jan‐Paul Lanwer
  • Vincent Oettel
  • Martin Empelmann
  • Svenja Höper
  • Ursula Kowalsky
  • Dieter Dinkler

Research Organisations

External Research Organisations

  • Technische Universität Braunschweig
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Details

Original languageEnglish
Title of host publicationProceedings of the fib Symposium 2019
Subtitle of host publicationConcrete - Innovations in Materials, Design and Structures
EditorsWit Derkowski, Piotr Krajewski, Piotr Gwozdziewicz, Marek Pantak, Lukasz Hojdys
Pages1912-1919
Number of pages8
ISBN (electronic)9782940643004
Publication statusPublished - May 2019
Eventfib Symposium 2019: Concrete - Innovations in Materials, Design and Structures - Krakow, Poland
Duration: 27 May 201929 May 2019

Abstract

The design of slender constructions with reduced weight made of high-tech materials such as ultra-high performance fibre-reinforced concrete (UHPFRC) leads to an increased susceptibility to oscillations. New models describing the fatigue behaviour of UHPFRC are required. Therefore, the material behaviour of all components and the composite itself, each subjected to cyclic tensile loading, is studied experimentally and numerically on the mesoscale. In this paper, first findings according to experimental single and multiple fibre pull-out tests and the corresponding numerical simulation with a first approach of a geometrically and physically non-linear bond model, are presented.

Keywords

    Bond behaviour, Continuum damage mechanics, Cyclic tensile loading, Imaging techniques, UHPFRC

ASJC Scopus subject areas

Cite this

Degradation Processes of UHPFRC under Cyclic Tensile Loading. / Lanwer, Jan‐Paul; Oettel, Vincent; Empelmann, Martin et al.
Proceedings of the fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures. ed. / Wit Derkowski; Piotr Krajewski; Piotr Gwozdziewicz; Marek Pantak; Lukasz Hojdys. 2019. p. 1912-1919.

Research output: Chapter in book/report/conference proceedingConference contributionResearchpeer review

Lanwer, JP, Oettel, V, Empelmann, M, Höper, S, Kowalsky, U & Dinkler, D 2019, Degradation Processes of UHPFRC under Cyclic Tensile Loading. in W Derkowski, P Krajewski, P Gwozdziewicz, M Pantak & L Hojdys (eds), Proceedings of the fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures. pp. 1912-1919, fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures, Krakow, Poland, 27 May 2019.
Lanwer, JP., Oettel, V., Empelmann, M., Höper, S., Kowalsky, U., & Dinkler, D. (2019). Degradation Processes of UHPFRC under Cyclic Tensile Loading. In W. Derkowski, P. Krajewski, P. Gwozdziewicz, M. Pantak, & L. Hojdys (Eds.), Proceedings of the fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures (pp. 1912-1919)
Lanwer JP, Oettel V, Empelmann M, Höper S, Kowalsky U, Dinkler D. Degradation Processes of UHPFRC under Cyclic Tensile Loading. In Derkowski W, Krajewski P, Gwozdziewicz P, Pantak M, Hojdys L, editors, Proceedings of the fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures. 2019. p. 1912-1919
Lanwer, Jan‐Paul ; Oettel, Vincent ; Empelmann, Martin et al. / Degradation Processes of UHPFRC under Cyclic Tensile Loading. Proceedings of the fib Symposium 2019: Concrete - Innovations in Materials, Design and Structures. editor / Wit Derkowski ; Piotr Krajewski ; Piotr Gwozdziewicz ; Marek Pantak ; Lukasz Hojdys. 2019. pp. 1912-1919
Download
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abstract = "The design of slender constructions with reduced weight made of high-tech materials such as ultra-high performance fibre-reinforced concrete (UHPFRC) leads to an increased susceptibility to oscillations. New models describing the fatigue behaviour of UHPFRC are required. Therefore, the material behaviour of all components and the composite itself, each subjected to cyclic tensile loading, is studied experimentally and numerically on the mesoscale. In this paper, first findings according to experimental single and multiple fibre pull-out tests and the corresponding numerical simulation with a first approach of a geometrically and physically non-linear bond model, are presented.",
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