| Title | Substitution of limestone filler by waste brick powder in self-compacting mortars: Properties and durability |
|---|---|
| ID_Doc | 15560 |
| Authors | Zhao, ZF; Grellier, A; Bouarroudj, ME; Michel, F; Bulteel, D; Courard, L |
| Title | Substitution of limestone filler by waste brick powder in self-compacting mortars: Properties and durability |
| Year | 2021 |
| Published | |
| Abstract | The feasibility of using waste brick powder (WBP) in the manufacture of self-compacting mortar has been investigated in this study. The limestone filler was partially or totally (0%, 50% and 100%) substituted with WBP. The rheological properties, compressive and flexural strengths, drying shrinkage and durability properties (including carbonation resistance, chloride ion diffusion and sulphate resistance) of self-compacting mortars were evaluated. The WBP-mortars presented a higher yield stress and plastic viscosity than that of WBP-free mortar: the additional water has to be added in order to achieve the equivalent workability. The compressive strength of WBPmortars slightly decreased after 7 days (the compressive strength of series mortars M - BP decreased 5.6% and 9.3% for 50% and 100% WBP based mortars comparing with the reference mortar, respectively; while the compressive strength of series with similar workability mortar M-BP100WA which was based on 100% WBP decreased 16.7% and it could achieve 26.8 MPa), but the decreasing trend seemed to be compensated by the pozzolanic activity of WBP and remained equivalent after 28 days (the compressive strength of series mortar MBP100WA decreased 5.3% and it could achieve 35.6 MPa). The substitution of limestone filler by WBP didn't seem to impair the durability behavior of mortars (except for the resistance to carbonation). Therefore, it is possible to manufacture self-compacting mortar by partially or totally substituting limestone filler by WBP. |
Similar Articles
| ID | Score | Article |
|---|---|---|
15058
|
Seifi, S; Sebaibi, N; Levacher, D; Boutouil, M Mechanical performance of a dry mortar without cement, based on paper fly ash and blast furnace slag(2019) | |
| 21822
|
Ulas, MA; Culcu, MB; Ulucan, M Valorization of recycled aggregates to eco-efficient lightweight self-compacting mortars: Studies on microstructure, mechanical, durability, environmental, and economic properties(2024) | |
| 8420
|
López-Uceda, A; Fernández-Ledesma, E; Jiménez, JR; Fernández-Rodríguez, JM Performance of Sustainable Mortars Made with Filler from Different Construction By-Products(2022)Materials, 15.0, 7 | |
| 12848
|
Belkadi, AA; Kessal, O; Chiker, T; Achour, Y; Rouabhi, A; Messaoudi, O; Khouadjia, MLK Full Factorial Design of Mechanical and Physical Properties of Eco-mortars Containing Waste Marble Powder(2023)Arabian Journal For Science And Engineering, 48.0, 4 | |
| 14541
|
Pavlíková, M; Zemanová, L; Záleská, M; Pokorny, J; Lojka, M; Jankovsky, O; Pavlík, Z Ternary Blended Binder for Production of a Novel Type of Lightweight Repair Mortar(2019)Materials, 12, 6 | |
| 13850
|
Volpintesta, F; Finocchiaro, C; Barone, G; Mazzoleni, P; Paris, E Compositional Differences in Construction and Demolition Wastes (CDWs) for Geopolymer Mortars: A Comparative Study Using Different Precursors and Alkaline Reagents(2024)Minerals, 14, 4 | |
| 23619
|
de Carvalho, TA; Gaspar, F; Marques, AC; Mateus, A Optimization of formulation ratios of geopolymer mortar based on metakaolin and biomass fly ash(2024) | |
| 25862
|
González-Caro, A; Merino-Lechuga, AM; Fernández-Ledesma, E; Fernández-Rodríguez, JM; Jiménez, JR; Suescum-Morales, D The Effect of Acanthocardia tuberculata Shell Powder as Filler on the Performance of Self-Compacting Mortar(2023)Materials, 16, 4 | |
| 12779
|
Loganathan, L; Yap, SP; Lau, BF; Nagapan, M Mechanical, durability, and microstructural properties of mortars containing spent mushroom substrate as partial fine aggregate replacement(2023)Environmental Science And Pollution Research, 30.0, 26 | |
| 15564
|
Martín, DA; Costafreda, JL; Costafreda, JJL; Presa, L Improving the Performance of Mortars Made from Recycled Aggregates by the Addition of Zeolitised Cineritic Tuff(2022)Crystals, 12, 1 |