Multi-performance experimental assessment of autogenous and crystalline admixture-stimulated self-healing in UHPFRCCs: Validation and reliability analysis through an inter-laboratory study
Francesco Lo Monte
1
,
Lamija Repesa
1
,
Didier Snoeck
2, 3
,
Hesam Doostkami
4
,
Marta Roig-Flores
4, 5
,
Sam J.P. Jackson
6
,
Ana Blanco Alvarez
6
,
Milena Nasner
7
,
Ruben Borg
7
,
Christof Schröfl
8
,
Mercedes Giménez
9
,
Alonso Maria Cruz
9
,
Pedro Serna
4
,
Nele De Belie
3
,
Liberato Ferrara
1
8
Institute of Construction Materials, Technische Universitaet Dresden, Germany
|
Publication type: Journal Article
Publication date: 2024-01-01
scimago Q1
wos Q1
SJR: 4.446
CiteScore: 22.5
Impact factor: 13.1
ISSN: 09589465, 1873393X
General Materials Science
Building and Construction
Abstract
The huge benefits brought by the use of Ultra High-Performance Fibre-Reinforced Cementitious Composites (UHPFRCCs) include their high “intrinsic” durability, which is guaranteed by (1) the compact microstructure and (2) the positive interaction between stable multiple-cracking response and autogenous self-healing capability. Hence, self-healing capability must be properly characterized addressing different performances, thus providing all the tools for completely exploiting such large potential. Within this context, the need is clear for a well-established protocol for self-healing characterization. To this end, in the framework of the Cost Action CA15202 SARCOS, six Round Robin Tests involving 30 partners all around Europe were launched addressing different materials, spanning from ordinary concrete to UHPFRCC, and employing different self-healing technologies. In this paper, the tailored experimental methodology is presented and discussed for the specific case of autogenous and crystalline-admixture stimulated healing of UHPFRCC, starting from the comparison of the results from seven different laboratories. The methodology is based on chloride penetration and water permeability tests in cracked disks together with flexural tests on small beams. The latter ones are specifically aimed at assessing the flexural performance recovery of UHPFRCCs, which stands as their signature design “parameter” according to the most recent internationally recognized design approaches. This multi-fold test approach allows to address both inherent durability properties, such as through-crack chloride penetration and apparent water permeability, and more structural/mechanical aspects, such as flexural strength and stiffness.
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21
Total citations:
21
Citations from 2024:
20
(95.24%)
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GOST
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Lo Monte F. et al. Multi-performance experimental assessment of autogenous and crystalline admixture-stimulated self-healing in UHPFRCCs: Validation and reliability analysis through an inter-laboratory study // Cement and Concrete Composites. 2024. Vol. 145. p. 105315.
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Lo Monte F., Repesa L., Snoeck D., Doostkami H., Roig-Flores M., Jackson S. J., Alvarez A. B., Nasner M., Borg R., Schröfl C., Giménez M., Maria Cruz A., Serna P., De Belie N., Ferrara L. Multi-performance experimental assessment of autogenous and crystalline admixture-stimulated self-healing in UHPFRCCs: Validation and reliability analysis through an inter-laboratory study // Cement and Concrete Composites. 2024. Vol. 145. p. 105315.
Cite this
RIS
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TY - JOUR
DO - 10.1016/j.cemconcomp.2023.105315
UR - https://doi.org/10.1016/j.cemconcomp.2023.105315
TI - Multi-performance experimental assessment of autogenous and crystalline admixture-stimulated self-healing in UHPFRCCs: Validation and reliability analysis through an inter-laboratory study
T2 - Cement and Concrete Composites
AU - Lo Monte, Francesco
AU - Repesa, Lamija
AU - Snoeck, Didier
AU - Doostkami, Hesam
AU - Roig-Flores, Marta
AU - Jackson, Sam J.P.
AU - Alvarez, Ana Blanco
AU - Nasner, Milena
AU - Borg, Ruben
AU - Schröfl, Christof
AU - Giménez, Mercedes
AU - Maria Cruz, Alonso
AU - Serna, Pedro
AU - De Belie, Nele
AU - Ferrara, Liberato
PY - 2024
DA - 2024/01/01
PB - Elsevier
SP - 105315
VL - 145
SN - 0958-9465
SN - 1873-393X
ER -
Cite this
BibTex (up to 50 authors)
Copy
@article{2024_Lo Monte,
author = {Francesco Lo Monte and Lamija Repesa and Didier Snoeck and Hesam Doostkami and Marta Roig-Flores and Sam J.P. Jackson and Ana Blanco Alvarez and Milena Nasner and Ruben Borg and Christof Schröfl and Mercedes Giménez and Alonso Maria Cruz and Pedro Serna and Nele De Belie and Liberato Ferrara},
title = {Multi-performance experimental assessment of autogenous and crystalline admixture-stimulated self-healing in UHPFRCCs: Validation and reliability analysis through an inter-laboratory study},
journal = {Cement and Concrete Composites},
year = {2024},
volume = {145},
publisher = {Elsevier},
month = {jan},
url = {https://doi.org/10.1016/j.cemconcomp.2023.105315},
pages = {105315},
doi = {10.1016/j.cemconcomp.2023.105315}
}