Sustainable solution of sewing thread attributes on seam pucker

IF 0.6 Q3 ENGINEERING, MULTIDISCIPLINARY
M. Amir
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引用次数: 0

Abstract

Bending rigidity magnitude of sewing thread provides a sustainable solution on the appearance of single needle lock stitched lightweight woven fabrics which are prone to pucker. Comparison of sewing thread bending rigidity with thread count, thread diameter, thread cyclic recovery and their resultant implication in the single lock stitched assemblies were given less consideration for the prediction and reduction of seam pucker severity. The resultant implication of physical and mechanical properties of sewing thread with rising trend of static thread tension magnitude at lock stitched sewing machine has significant impact on lightweight lock stitched fabric assemblies to predict and elude seam pucker. The present research is focused to investigate impact of the thread bending rigidity on count, diameter and cyclic recovery at 4th cycle of four cores spun sewing threads. The study concluded that sewing thread bending rigidity has high coefficient of determination of sewing thread; diameter (R2 =0.81), count (R2 =0.73) and cyclic recovery (R2 =0.77). Single needle 400 lock stitched samples of two cores spun sewing threads (t2 and t4) were prepared with ten plain weave lightweight woven fabric samples prone to pucker at four different static needle thread tensions. It is also established that combined effect of sewing thread static tension and cyclic recovery at sewing machine has significant coefficient of determination (R2>0.85 at low static thread tension and R2>0.73 at very high static thread tension) to predict and elude seam pucker severity. Research finding provides a sustainable solution to select the fine count sewing thread attuned with lightweight woven fabrics prone to pucker severity. It was observed that the Fine count sewing thread has lowest bending rigidity and 4th cyclic recovery magnitudes (R2 close to 1) to reduce or predict pucker severity for prone to pucker plain weave lightweight woven fabrics at minimum static thread tension (25gf ) on single needle lock stitched sewing machine (R2>0.81).
缝线属性对起皱的可持续解决
缝纫线的弯曲刚度大小为单针锁缝轻量机织物易起皱的外观提供了可持续的解决方案。在单锁缝组合件中,缝纫线弯曲刚度与线数、线径、线循环回复率及其影响的比较在预测和降低缝起皱程度方面考虑较少。缝纫线的物理力学性能随锁缝机静态线张力值的上升趋势而变化,对轻量化锁缝织物组件预测和避免缝皱有重要影响。研究了螺纹弯曲刚度对四芯缝纫线的计数、直径和第4次循环回复率的影响。研究结果表明:缝纫线弯曲刚度具有较高的缝纫线决定系数;直径(R2 =0.81)、计数(R2 =0.73)和循环回收率(R2 =0.77)。在4种不同的静态针线张力下,用10种易起皱的平纹轻梭织织物样品制备了2芯缝纫线(t2和t4)的单针400锁缝样品。并确定缝纫线静张力与缝纫机循环回收量的联合效应具有显著的决定系数(低静张力时R2>0.85,极高静张力时R2>0.73),可用于预测和规避缝皱严重程度。研究结果提供了一个可持续的解决方案,以选择细支缝纫线,以适应轻量的机织织物容易起皱的严重性。结果表明,在单针锁缝机上,当静态线张力最小(25gf)时,细支缝纫线具有最低的弯曲刚度和4次循环恢复量(R2接近1),可降低或预测易起皱平纹轻梭织织物的起皱程度(R2>0.81)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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76
审稿时长
40 weeks
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