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Experimental investigation of mechanical and comfort properties of banana/cotton blended woven fabrics
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Purpose
Through this study, four different types of woven fabric structures were created by using cotton/banana blends with a 70:30 ratio by varying the weaving specifications. This study aims to investigate the comfort and mechanical properties of these woven materials.
Design/methodology/approach
Taguchi L16 experimental design (5 factors and 4 levels) with response surface methodology tool was used to optimize mechanical and comfort characteristics. The yarn samples used in this study are cotton/banana with a blend ratio of 70:30. Fabric type (A), grams per square metre (GSM; B), yarn count (C), fabric thickness (D) and cloth cover factor (E) are the chosen process characteristics.
Findings
The highest tensile strength and tearing strength of the cotton/banana blended fabric samples were obtained as 326.3 N and 90.3 k.gf/cm, respectively. Similarly, the highest thermal conductivity and overall moisture management capacity values were found to be 0.6628 and 3.06 W/mK X10−4, respectively. The optimized process parameters for obtaining maximum mechanical properties were using canvas fabric structure, 182 GSM, 36s Ne yarn count, 0.48 mm fabric thickness and 23.5 cloth cover factor. Similarly, the optimized process parameters for obtaining maximum comfort properties were achieved using a twill fabric structure, 182 GSM, 32s Ne yarn count, 0.4 mm fabric thickness and 23 cloth cover factor.
Originality/value
In contrast to synthetic fabrics, banana fibre and its blended materials are significant ecological solutions for apparel and functional clothing. Products made from banana fibre are a sustainable and green alternative to conventional fabrics. Banana fibre obtained from the pseudostem of the plant has an appearance similar to ramie and bamboo fibres. Numerous studies showed that banana fibre could absorb significant moisture and be spun into yarn through ring and rotor spinning technology. On the other hand, this fibre can be easily combined with cotton, jute, wool and synthetic fibre. The present utilization of pseudostem of banana plant fibre is very minimal. This type of research improves the usability of bananas their blended fabrics as apparel and functional wear.
Title: Experimental investigation of mechanical and comfort properties of banana/cotton blended woven fabrics
Description:
Purpose
Through this study, four different types of woven fabric structures were created by using cotton/banana blends with a 70:30 ratio by varying the weaving specifications.
This study aims to investigate the comfort and mechanical properties of these woven materials.
Design/methodology/approach
Taguchi L16 experimental design (5 factors and 4 levels) with response surface methodology tool was used to optimize mechanical and comfort characteristics.
The yarn samples used in this study are cotton/banana with a blend ratio of 70:30.
Fabric type (A), grams per square metre (GSM; B), yarn count (C), fabric thickness (D) and cloth cover factor (E) are the chosen process characteristics.
Findings
The highest tensile strength and tearing strength of the cotton/banana blended fabric samples were obtained as 326.
3 N and 90.
3 k.
gf/cm, respectively.
Similarly, the highest thermal conductivity and overall moisture management capacity values were found to be 0.
6628 and 3.
06 W/mK X10−4, respectively.
The optimized process parameters for obtaining maximum mechanical properties were using canvas fabric structure, 182 GSM, 36s Ne yarn count, 0.
48 mm fabric thickness and 23.
5 cloth cover factor.
Similarly, the optimized process parameters for obtaining maximum comfort properties were achieved using a twill fabric structure, 182 GSM, 32s Ne yarn count, 0.
4 mm fabric thickness and 23 cloth cover factor.
Originality/value
In contrast to synthetic fabrics, banana fibre and its blended materials are significant ecological solutions for apparel and functional clothing.
Products made from banana fibre are a sustainable and green alternative to conventional fabrics.
Banana fibre obtained from the pseudostem of the plant has an appearance similar to ramie and bamboo fibres.
Numerous studies showed that banana fibre could absorb significant moisture and be spun into yarn through ring and rotor spinning technology.
On the other hand, this fibre can be easily combined with cotton, jute, wool and synthetic fibre.
The present utilization of pseudostem of banana plant fibre is very minimal.
This type of research improves the usability of bananas their blended fabrics as apparel and functional wear.
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