ENHANCING MORTAR PERFORMANCE USING RECYCLED PLASTIC FIBERS: A SUSTAINABLE SOLUTION FOR SOLID WASTE MANAGEMENT

<p>The primary goal of the research was to determine how recycled plastic fiber's shape affected the functionality of mortar made from naturally occurring limestone residue. The identical length (20 ± 2 mm) and diameter (0.45 ± 0.07 mm) of two types of recycled fibers, straight and crimped, were employed. The fibers used for this study were taken in four different ratios 0.5%, 1%, 1,5%, and 2%. Compared to the crimped fibers, the straight fibers with concrete mix have high compressive and flexural strengths. i.e., 37.52 Mpa and 9.78 Mpa of compressive and flexural strength were observed for crumped fibers lower than the straight fibers (39.73 MPa and 10.48 Mpa) mixed with concrete mix. The results reveal that the geometry of the recycled plastic fibers is a key factor affecting the performance of the limestone residue mortar. The findings show that a restricted dose of 1% and 0.5% of the recycled plastic fiber is required to produce a workable mortar for both straight and crimped fibers. Incorporating recycled plastic fibers has been demonstrated to enhance the flexural and compressive properties of limestone residue mortar; nevertheless, the strength values of straight fiber mortar (SFM) are greater than those of crimped fiber mortar (CFM). The microstructure investigation validates the fiber mortar's excellent performance. </p>

Publication Details

Journal
Global NEST Journal
Published
2025-03-04
DOI
https://doi.org/10.30955/gnj.07024
Primary Topic
Recycled Aggregate Concrete Performance
Type
article
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article

ENHANCING MORTAR PERFORMANCE USING RECYCLED PLASTIC FIBERS: A SUSTAINABLE SOLUTION FOR SOLID WASTE MANAGEMENT

Global NEST Journal
Recycled Aggregate Concrete Performance
article

ENHANCING MORTAR PERFORMANCE USING RECYCLED PLASTIC FIBERS: A SUSTAINABLE SOLUTION FOR SOLID WASTE MANAGEMENT

article en

Abstract

<p>The primary goal of the research was to determine how recycled plastic fiber's shape affected the functionality of mortar made from naturally occurring limestone residue. The identical length (20 ± 2 mm) and diameter (0.45 ± 0.07 mm) of two types of recycled fibers, straight and crimped, were employed. The fibers used for this study were taken in four different ratios 0.5%, 1%, 1,5%, and 2%. Compared to the crimped fibers, the straight fibers with concrete mix have high compressive and flexural strengths. i.e., 37.52 Mpa and 9.78 Mpa of compressive and flexural strength were observed for crumped fibers lower than the straight fibers (39.73 MPa and 10.48 Mpa) mixed with concrete mix. The results reveal that the geometry of the recycled plastic fibers is a key factor affecting the performance of the limestone residue mortar. The findings show that a restricted dose of 1% and 0.5% of the recycled plastic fiber is required to produce a workable mortar for both straight and crimped fibers. Incorporating recycled plastic fibers has been demonstrated to enhance the flexural and compressive properties of limestone residue mortar; nevertheless, the strength values of straight fiber mortar (SFM) are greater than those of crimped fiber mortar (CFM). The microstructure investigation validates the fiber mortar's excellent performance. </p>

Global NEST Journal
Openalex Percentile: Top 97%
Recycled Aggregate Concrete Performance
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ENHANCING MORTAR PERFORMANCE USING RECYCLED PLASTIC FIBERS: A SUSTAINABLE SOLUTION FOR SOLID WASTE MANAGEMENT · Global NEST Journal (2025) | TGRS Research Map | TGRS