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Tensile Properties of Cattail Fibres at Various Phenological Development Stages
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Cattails (Typha latifolia L.) are naturally occurring aquatic macrophytes with significant industrial potential because of their abundance, high-quality fibers, and high fiber yields. This study is the first attempt to investigate how phenological development and plant maturity impact the quality of cattail fibers as they relate to composite applications. It was observed that fibers from all five growth stages exhibited a Weibull shape parameter greater than 1.0, with a goodness-of-fit exceeding 0.8. These calculations were performed using both the Least Square Regression (LSR) and Maximum Likelihood Estimation (MLE) methods. Among the estimators, the MLE method provided the most conservative estimation of Weibull parameters. Based on the Weibull parameters obtained with all estimators, cattail fibers from all five growth stages appear suitable for composite applications. The consistency of shape parameters across all five growth stages can be attributed to the morphological and molecular developments of cattail fiber during the vegetative period. These developments were confirmed through the presence of calcium oxalate (CaOx) plates, elemental composition, and specific infrared peaks at 2360 cm−1 contributing to the strength, cellulose peaks at 1635 cm−1, 2920 cm−1, and 3430 cm−1. In conclusion, it was found that the mechanical properties of cattail fiber remain similar when harvested multiple times in a single growing season.
Title: Tensile Properties of Cattail Fibres at Various Phenological Development Stages
Description:
Cattails (Typha latifolia L.
) are naturally occurring aquatic macrophytes with significant industrial potential because of their abundance, high-quality fibers, and high fiber yields.
This study is the first attempt to investigate how phenological development and plant maturity impact the quality of cattail fibers as they relate to composite applications.
It was observed that fibers from all five growth stages exhibited a Weibull shape parameter greater than 1.
0, with a goodness-of-fit exceeding 0.
8.
These calculations were performed using both the Least Square Regression (LSR) and Maximum Likelihood Estimation (MLE) methods.
Among the estimators, the MLE method provided the most conservative estimation of Weibull parameters.
Based on the Weibull parameters obtained with all estimators, cattail fibers from all five growth stages appear suitable for composite applications.
The consistency of shape parameters across all five growth stages can be attributed to the morphological and molecular developments of cattail fiber during the vegetative period.
These developments were confirmed through the presence of calcium oxalate (CaOx) plates, elemental composition, and specific infrared peaks at 2360 cm−1 contributing to the strength, cellulose peaks at 1635 cm−1, 2920 cm−1, and 3430 cm−1.
In conclusion, it was found that the mechanical properties of cattail fiber remain similar when harvested multiple times in a single growing season.
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