Shear force capacity of cross laminated timber beams : Numerical investigations of fracture behaviour
(2025) p.1112-1121- Abstract
- This paper deals with numerical investigations of cross laminated timber (CLT) beams. Previous investigations have revealed discrepancies between experimental test results and suggested design methods regarding shear force capacity of such beams. To gain further understanding of the failure behaviour and the shear force capacity, nonlinear finite element analyses have been performed, using a cohesive zone modelling approach for representation of the fracture behaviour of the bonding between laminations. Numerical results, analytical model predictions and findings from experimental tests are compared regarding the influence of different beam geometry parameters. The aim of the present work is to gain further understanding of the failure... (More)
- This paper deals with numerical investigations of cross laminated timber (CLT) beams. Previous investigations have revealed discrepancies between experimental test results and suggested design methods regarding shear force capacity of such beams. To gain further understanding of the failure behaviour and the shear force capacity, nonlinear finite element analyses have been performed, using a cohesive zone modelling approach for representation of the fracture behaviour of the bonding between laminations. Numerical results, analytical model predictions and findings from experimental tests are compared regarding the influence of different beam geometry parameters. The aim of the present work is to gain further understanding of the failure behaviour and shear force capacity of CLT beams, as such knowledge is needed for development of rationally based and reliable design methods. (Less)
Please use this url to cite or link to this publication:
https://lup.lub.lu.se/record/6fef60bb-64f2-43e0-af31-dcca6b3aa4c0
- author
- Danielsson, Henrik
LU
and Serrano, Erik LU
- organization
- publishing date
- 2025-06
- type
- Chapter in Book/Report/Conference proceeding
- publication status
- published
- subject
- host publication
- World Conference on Timber Engineering 2025 : Advancing Timber for the Future Built Environment - Advancing Timber for the Future Built Environment
- editor
- Rischmiller, Kelly
- pages
- 10 pages
- publisher
- World Conference of Timber Engineering
- external identifiers
-
- scopus:105010283047
- ISBN
- 979-8-3313-2089-8
- 979-8-3313-2090-4
- DOI
- 10.52202/080513-0136
- project
- Strength and fracture analysis of laminated wood-based structural elements
- language
- English
- LU publication?
- yes
- id
- 6fef60bb-64f2-43e0-af31-dcca6b3aa4c0
- date added to LUP
- 2025-08-21 16:25:45
- date last changed
- 2025-08-26 03:11:36
@inproceedings{6fef60bb-64f2-43e0-af31-dcca6b3aa4c0, abstract = {{This paper deals with numerical investigations of cross laminated timber (CLT) beams. Previous investigations have revealed discrepancies between experimental test results and suggested design methods regarding shear force capacity of such beams. To gain further understanding of the failure behaviour and the shear force capacity, nonlinear finite element analyses have been performed, using a cohesive zone modelling approach for representation of the fracture behaviour of the bonding between laminations. Numerical results, analytical model predictions and findings from experimental tests are compared regarding the influence of different beam geometry parameters. The aim of the present work is to gain further understanding of the failure behaviour and shear force capacity of CLT beams, as such knowledge is needed for development of rationally based and reliable design methods.}}, author = {{Danielsson, Henrik and Serrano, Erik}}, booktitle = {{World Conference on Timber Engineering 2025 : Advancing Timber for the Future Built Environment}}, editor = {{Rischmiller, Kelly}}, isbn = {{979-8-3313-2089-8}}, language = {{eng}}, pages = {{1112--1121}}, publisher = {{World Conference of Timber Engineering}}, title = {{Shear force capacity of cross laminated timber beams : Numerical investigations of fracture behaviour}}, url = {{http://dx.doi.org/10.52202/080513-0136}}, doi = {{10.52202/080513-0136}}, year = {{2025}}, }