Uncertainty quantification for inelastic materials and structures: Time-separated stochastic mechanics

Research output: ThesisDoctoral thesis

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Details

Original languageEnglish
QualificationDoktor-Ingenieur(in) (Dr.-Ing.)
Awarding Institution
Supervised by
  • Junker, P., Supervisor
  • Nagel, Jan, Supervisor, External person
Date of Award10 Dec 2024
Place of PublicationGarbsen
Print ISBNs9783941302525
Publication statusPublished - 2025

Abstract

Uncertainty quantification is crucial for the design of resource-efficient and reliable structures. Uncertainties of the material properties arise naturally in the production process and have significant effect on the structural behavior. In this work, a novel method for the uncertainty quantification of inelastic materials and structures is presented. The method is based on a separation of random but time-independent from deterministic but time-dependent behavior. As a result, only a low number of deterministic time-dependent basis functions are calculated. This allows uncertainty quantification at greatly reduced costs.

Cite this

Geisler H. Uncertainty quantification for inelastic materials and structures: Time-separated stochastic mechanics. Garbsen, 2025. 160 p. (Gottfried Wihlhelm Leibniz Universität Hannover, Institut für Kontinuumsmechanik). doi: 10.15488/19209
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Download

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T2 - Time-separated stochastic mechanics

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