Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites

Research output: Chapter in book/report/conference proceedingContribution to book/anthologyResearchpeer review

Authors

  • G. Balokas
  • Benedikt Kriegesmann
  • Steffen Czichon
  • A. Böttcher
  • Raimund Rolfes

Research Organisations

External Research Organisations

  • ELAN-AUSY GmbH
  • Hamburg University of Technology (TUHH)
  • Fraunhofer Institute for Wind Energy Systems (IWES)
View graph of relations

Details

Original languageEnglish
Title of host publicationAdvances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites
EditorsMarco Petrolo
PublisherSpringer Nature
Pages179-193
Number of pages15
Edition1.
ISBN (electronic)978-3-030-11969-0
ISBN (print)978-3-030-11968-3
Publication statusPublished - 25 Feb 2019

Publication series

NamePoliTO Springer Series
ISSN (Print)2509-6796
ISSN (electronic)2509-7024

Abstract

This chapter presents an uncertainty quantification framework for triaxially braided composites simulation, dealing with the stochastic stiffness prediction via numerical multiscale analysis. Efficiency is achieved by using various metamodeling techniques, such as neural networks, polynomial chaos expansion and Kriging modeling. Uncertainties accounting for material and geometric randomness are propagating through the scales to the final scatter of the mechanical properties of the macroscale. Information about the stochastic input and the dominating uncertain parameters is offered via application of a variance-based global sensitivity analysis. All methods employed in this work are non-intrusive, hence the framework can be used for all sorts of composite materials and numerical models. The need for realistic uncertainty quantification is highlighted.

ASJC Scopus subject areas

Cite this

Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites. / Balokas, G.; Kriegesmann, Benedikt; Czichon, Steffen et al.
Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites. ed. / Marco Petrolo. 1. ed. Springer Nature, 2019. p. 179-193 (PoliTO Springer Series).

Research output: Chapter in book/report/conference proceedingContribution to book/anthologyResearchpeer review

Balokas, G, Kriegesmann, B, Czichon, S, Böttcher, A & Rolfes, R 2019, Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites. in M Petrolo (ed.), Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites. 1. edn, PoliTO Springer Series, Springer Nature, pp. 179-193. https://doi.org/10.1007/978-3-030-11969-0_11
Balokas, G., Kriegesmann, B., Czichon, S., Böttcher, A., & Rolfes, R. (2019). Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites. In M. Petrolo (Ed.), Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites (1. ed., pp. 179-193). (PoliTO Springer Series). Springer Nature. https://doi.org/10.1007/978-3-030-11969-0_11
Balokas G, Kriegesmann B, Czichon S, Böttcher A, Rolfes R. Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites. In Petrolo M, editor, Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites. 1. ed. Springer Nature. 2019. p. 179-193. (PoliTO Springer Series). doi: 10.1007/978-3-030-11969-0_11
Balokas, G. ; Kriegesmann, Benedikt ; Czichon, Steffen et al. / Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites. Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites. editor / Marco Petrolo. 1. ed. Springer Nature, 2019. pp. 179-193 (PoliTO Springer Series).
Download
@inbook{2a8808b2cb184a378fd40191e7f47074,
title = "Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites",
abstract = "This chapter presents an uncertainty quantification framework for triaxially braided composites simulation, dealing with the stochastic stiffness prediction via numerical multiscale analysis. Efficiency is achieved by using various metamodeling techniques, such as neural networks, polynomial chaos expansion and Kriging modeling. Uncertainties accounting for material and geometric randomness are propagating through the scales to the final scatter of the mechanical properties of the macroscale. Information about the stochastic input and the dominating uncertain parameters is offered via application of a variance-based global sensitivity analysis. All methods employed in this work are non-intrusive, hence the framework can be used for all sorts of composite materials and numerical models. The need for realistic uncertainty quantification is highlighted.",
author = "G. Balokas and Benedikt Kriegesmann and Steffen Czichon and A. B{\"o}ttcher and Raimund Rolfes",
year = "2019",
month = feb,
day = "25",
doi = "10.1007/978-3-030-11969-0_11",
language = "English",
isbn = "978-3-030-11968-3",
series = "PoliTO Springer Series",
publisher = "Springer Nature",
pages = "179--193",
editor = "Marco Petrolo",
booktitle = "Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites",
address = "United States",
edition = "1.",

}

Download

TY - CHAP

T1 - Metamodel-Based Uncertainty Quantification for the Mechanical Behavior of Braided Composites

AU - Balokas, G.

AU - Kriegesmann, Benedikt

AU - Czichon, Steffen

AU - Böttcher, A.

AU - Rolfes, Raimund

PY - 2019/2/25

Y1 - 2019/2/25

N2 - This chapter presents an uncertainty quantification framework for triaxially braided composites simulation, dealing with the stochastic stiffness prediction via numerical multiscale analysis. Efficiency is achieved by using various metamodeling techniques, such as neural networks, polynomial chaos expansion and Kriging modeling. Uncertainties accounting for material and geometric randomness are propagating through the scales to the final scatter of the mechanical properties of the macroscale. Information about the stochastic input and the dominating uncertain parameters is offered via application of a variance-based global sensitivity analysis. All methods employed in this work are non-intrusive, hence the framework can be used for all sorts of composite materials and numerical models. The need for realistic uncertainty quantification is highlighted.

AB - This chapter presents an uncertainty quantification framework for triaxially braided composites simulation, dealing with the stochastic stiffness prediction via numerical multiscale analysis. Efficiency is achieved by using various metamodeling techniques, such as neural networks, polynomial chaos expansion and Kriging modeling. Uncertainties accounting for material and geometric randomness are propagating through the scales to the final scatter of the mechanical properties of the macroscale. Information about the stochastic input and the dominating uncertain parameters is offered via application of a variance-based global sensitivity analysis. All methods employed in this work are non-intrusive, hence the framework can be used for all sorts of composite materials and numerical models. The need for realistic uncertainty quantification is highlighted.

UR - http://www.scopus.com/inward/record.url?scp=85083964992&partnerID=8YFLogxK

U2 - 10.1007/978-3-030-11969-0_11

DO - 10.1007/978-3-030-11969-0_11

M3 - Contribution to book/anthology

AN - SCOPUS:85083964992

SN - 978-3-030-11968-3

T3 - PoliTO Springer Series

SP - 179

EP - 193

BT - Advances in Predictive Models and Methodologies for Numerically Efficient Linear and Nonlinear Analysis of Composites

A2 - Petrolo, Marco

PB - Springer Nature

ER -

By the same author(s)