Reuse of Solid Bricks in Construction: An Experimental Work

This study experimentally and numerically examines the structural and seismic performance of recycled solid-brick masonry infills and load-bearing walls constructed from demolition materials. Solid bricks recovered from demolished structures were reused as infill in reinforced concrete (RC) frames and as standalone walls. Five full-scale panels, bare, 50% infilled, and 100% infilled frames, were tested under diagonal compression in accordance with ASTM E519-17, simulating in-plane seismic loading. Results showed that fully infilled frames exhibited a 149% increase in diagonal shear strength but a 40% reduction in ductility relative to the bare frame, indicating a trade-off between stiffness and deformation capacity. Finite element simulations using the Concrete Damaged Plasticity (CDP) model reproduced the experimental load–displacement curves with close agreement (within 6–8% in peak load) and captured the main failure patterns. Reusing cleaned demolition bricks reduces the demand for new fired bricks and helps divert construction waste from landfill, contributing to sustainable and circular construction. The findings confirm the potential of recycled masonry for low-carbon and seismic-resilient construction, provided that ductility limitations are appropriately addressed in design.

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Publication Details

Journal
Buildings
Published
2025-10-31
DOI
https://doi.org/10.3390/buildings15213935
Citations
1
Primary Topic
Masonry and Concrete Structural Analysis
Type
article
Field-Weighted Citation Impact
0.95
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article

Reuse of Solid Bricks in Construction: An Experimental Work

Marco Corradi, Erion Periku, Erion Luga, Enea Mustafaraj et al.
1 citations
Buildings
Masonry and Concrete Structural Analysis
0.95
article

Reuse of Solid Bricks in Construction: An Experimental Work

Marco Corradi, Erion Periku, Erion Luga, Enea Mustafaraj, Emrah Tasdemir, Ervis Lika
article en
1 citations

Abstract

This study experimentally and numerically examines the structural and seismic performance of recycled solid-brick masonry infills and load-bearing walls constructed from demolition materials. Solid bricks recovered from demolished structures were reused as infill in reinforced concrete (RC) frames and as standalone walls. Five full-scale panels, bare, 50% infilled, and 100% infilled frames, were tested under diagonal compression in accordance with ASTM E519-17, simulating in-plane seismic loading. Results showed that fully infilled frames exhibited a 149% increase in diagonal shear strength but a 40% reduction in ductility relative to the bare frame, indicating a trade-off between stiffness and deformation capacity. Finite element simulations using the Concrete Damaged Plasticity (CDP) model reproduced the experimental load–displacement curves with close agreement (within 6–8% in peak load) and captured the main failure patterns. Reusing cleaned demolition bricks reduces the demand for new fired bricks and helps divert construction waste from landfill, contributing to sustainable and circular construction. The findings confirm the potential of recycled masonry for low-carbon and seismic-resilient construction, provided that ductility limitations are appropriately addressed in design.

BuildingsVol. 15(21)
University of Huddersfield (GB), Academy of Sciences of Albania (AL), Aleksandër Moisiu University (AL), American University of the Middle East (KW), Albanian University (AL), University of Tirana (AL)
Openalex Percentile: Top 20%
Masonry and Concrete Structural Analysis
0.95
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