TY - JOUR
T1 - Valorization of treated bamboo fiber in the mechanical strength and durability of concrete
AU - Arcila Londoño, Sandra Lorena
AU - Garcia Chumacero, Juan Martin
AU - Villegas Granados, Luis Mariano
AU - Damiani Lazo, Carlos Arturo
AU - Arriola Carrasco, Guillermo Gustavo
AU - Villena Zapata, Luigi Italo
AU - Idrogo Perez, Cesar Antonio
N1 - Publisher Copyright:
© Springer Nature Switzerland AG 2025.
PY - 2025/6
Y1 - 2025/6
N2 - This study aims to evaluate the behavior of concrete reinforced with treated bamboo fiber (TBF) under sulfate exposure, determining its optimal dosage (0.5–2% by cement weight) to enhance mechanical properties and durability without altering the water/cement ratio. The methodology integrates advanced statistical analyses (ANOVA/Tukey) and a cost–benefit assessment. The fibers were cut to a length of 20 mm with an approximate diameter of 2 mm. Results showed that workability and density decreased as TBF content increased, while air content rose. After 28 days of curing, the optimal dosage of 1.5% TBF significantly improved mechanical properties, with increases of: 20.61% in compressive strength, 9.81% in modulus of elasticity, 34.51% in flexural strength, and 31.20% in tensile strength. However, higher dosages (2% TBF) reduced mechanical performance—though not below control concrete levels. Regarding durability at 56 days, mass loss due to sodium sulfate (Na2SO4) exposure increased by up to 72.71% with 2% TBF, yet all values remained within acceptable limits (< 12%). This suggests that in high-salt or severe weathering environments, excessive TBF may compromise durability. Statistical analysis (ANOVA and Tukey tests, p < 0.05) confirmed significant differences in all properties. The cost–benefit analysis revealed that 1.5% TBF is economically viable, costing S/400.42 Peruvian soles per m3 while delivering a 31.20% tensile strength improvement. These findings demonstrate TBF’s potential as a sustainable reinforcement for structural and non-structural concrete, provided dosages are optimized and environmental conditions are accounted for.
AB - This study aims to evaluate the behavior of concrete reinforced with treated bamboo fiber (TBF) under sulfate exposure, determining its optimal dosage (0.5–2% by cement weight) to enhance mechanical properties and durability without altering the water/cement ratio. The methodology integrates advanced statistical analyses (ANOVA/Tukey) and a cost–benefit assessment. The fibers were cut to a length of 20 mm with an approximate diameter of 2 mm. Results showed that workability and density decreased as TBF content increased, while air content rose. After 28 days of curing, the optimal dosage of 1.5% TBF significantly improved mechanical properties, with increases of: 20.61% in compressive strength, 9.81% in modulus of elasticity, 34.51% in flexural strength, and 31.20% in tensile strength. However, higher dosages (2% TBF) reduced mechanical performance—though not below control concrete levels. Regarding durability at 56 days, mass loss due to sodium sulfate (Na2SO4) exposure increased by up to 72.71% with 2% TBF, yet all values remained within acceptable limits (< 12%). This suggests that in high-salt or severe weathering environments, excessive TBF may compromise durability. Statistical analysis (ANOVA and Tukey tests, p < 0.05) confirmed significant differences in all properties. The cost–benefit analysis revealed that 1.5% TBF is economically viable, costing S/400.42 Peruvian soles per m3 while delivering a 31.20% tensile strength improvement. These findings demonstrate TBF’s potential as a sustainable reinforcement for structural and non-structural concrete, provided dosages are optimized and environmental conditions are accounted for.
KW - Bamboo
KW - Civil engineering
KW - Construction industry
KW - Durability
UR - https://www.scopus.com/pages/publications/105004580823
U2 - 10.1007/s41062-025-02022-w
DO - 10.1007/s41062-025-02022-w
M3 - Article
AN - SCOPUS:105004580823
SN - 2364-4176
VL - 10
JO - Innovative Infrastructure Solutions
JF - Innovative Infrastructure Solutions
IS - 6
M1 - 219
ER -