Rik Steensels
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Rik Steensels has a total of 13 co-authors. Here are the top co-authors by number of shared publications:
- Bram Vandoren
Faculty of Engineering Technology, Hasselt University, 3500 Hasselt, Belgium
3 shared publications - Hervé Degée
Hasselt University
3 shared publications - Eline Vereecken
Hasselt University
2 shared publications - Elke Knapen
Hasselt University
2 shared publications - Erik Pelicaen2 shared publications
- Alexandru N. Trandafir
University of Liège
1 shared publication
Latest Publications
- 21 February 2026
- Published by Elsevier in Construction and Building Materials
- Vol. 516
Investigations on the creep behaviour of unfired clay block masonry
- 21 February 2026
- Published by Elsevier in Construction and Building Materials
- Vol. 516
Investigations on the creep behaviour of unfired clay block masonry
- Open Access
- 19 December 2025
- Published by Elsevier in Results in Engineering
- Vol. 29
Evaluating the fitness for reuse of earth blocks reclaimed from load-bearing masonry: The case for compressive strength
- 19 December 2025
- Published by Elsevier in Results in Engineering
- Vol. 29
Open AccessEvaluating the fitness for reuse of earth blocks reclaimed from load-bearing masonry: The case for compressive strength
- Open Access
- 20 June 2018
- Published by MDPI AG in Proceedings
- Vol. 2 (8) , 463
Experimental and Numerical Analysis of Timber I-Joists with Cut-Outs
This contribution presents the results of an experimental and numerical campaign evaluating the influence of cut-outs on the strength and stiffness of composite timber I-joists. These cut-outs are often introduced in the webs during the instalment of utility lines. The presence of these cut-outs will have an impact on the structural behaviour of the element. However, these influences are not taken into account in the current design standards. In order to evaluate the impact of the cut-outs, an experimental campaign was set up in which the structural behaviour of seven composite I-joist beam was analysed. The geometry and spacing of the cut-outs were varied along these seven beam elements. The experimental results clearly show the reduction in stiffness and the influence on the failure mechanism of the beam elements caused by the cut-outs. Additional to the experimental study, a numerical campaign in which the structural response of these I-joists is modelled is also performed. Nonlinear material behaviour is taken into account in the numerical models through the use of a gradient-enhanced damage model. Overall, good agreement is reached between the experimental and numerical data for the beam elements in the linear elastic regime. The ultimate load was also represented well by the numerical model for those elements which fail due to failure of the hardboard web.
- 20 June 2018
- Published by MDPI AG in Proceedings
- Vol. 2 (8) , 463
Open AccessExperimental and Numerical Analysis of Timber I-Joists with Cut-Outs
This contribution presents the results of an experimental and numerical campaign evaluating the influence of cut-outs on the strength and stiffness of composite timber I-joists. These cut-outs are often introduced in the webs during the instalment of utility lines. The presence of these cut-outs will have an impact on the structural behaviour of the element. However, these influences are not taken into account in the current design standards. In order to evaluate the impact of the cut-outs, an experimental campaign was set up in which the structural behaviour of seven composite I-joist beam was analysed. The geometry and spacing of the cut-outs were varied along these seven beam elements. The experimental results clearly show the reduction in stiffness and the influence on the failure mechanism of the beam elements caused by the cut-outs. Additional to the experimental study, a numerical campaign in which the structural response of these I-joists is modelled is also performed. Nonlinear material behaviour is taken into account in the numerical models through the use of a gradient-enhanced damage model. Overall, good agreement is reached between the experimental and numerical data for the beam elements in the linear elastic regime. The ultimate load was also represented well by the numerical model for those elements which fail due to failure of the hardboard web.
- 6 August 2017
- Published by Springer Nature
- p. 578-586
Efficient End-Zone Detailing of Pre-tensioned Concrete Elements
- 6 August 2017
- Published by Springer Nature
- p. 578-586
Efficient End-Zone Detailing of Pre-tensioned Concrete Elements