Evaluation and Prediction of Dynamic Moisture Comfort Property of Fine Denier Fiber Fabric

Kai Yang; Ming Li Jiao; Wei Yuan Zhang

doi:10.4028/www.scientific.net/AMR.160-162.866

Paper Titles

Kinetics and Thermodynamics Studies on the Decompositions of Phosphogypsum in Different Atmospheres
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Numerical Simulation Study on the Cold Rolling of Hollow Thread
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Quasi-Static Failure Analysis of Honeycomb Sandwich Beam with Composite Facesheets
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Optimum Design of the Launch Vehicle Composite Cross Beam Structure Based on Equivalent Model
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Evaluation and Prediction of Dynamic Moisture Comfort Property of Fine Denier Fiber Fabric
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First Principles Calculations of Phase Stabilities of MgH₂ and Mg₇XH₁₆(X=Nb,V,Ti)
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Electronic Structure and Bonding Characteristic of LaMgNi₄H₄
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The Distinctive Charm of Coating-Architecture in the Modern Urban Development
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Structure and Composition Study of InSb Films Prepared by Radio-Frequency Sputtering
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Evaluation and Prediction of Dynamic Moisture Comfort Property of Fine Denier Fiber Fabric

Abstract:

Fine denier fiber fabric has unique wicking effect and good hydrophobic property, which can keep dry and moisture comfortable when people are in heavy and continued sweat. This paper studied the dynamic moisture comfort property of fine denier fiber fabric compared with conventional fiber fabrics. Firstly, a series of experiments was performed on studying the dynamic moisture transferring procedure and evaluating moisture comfort property of fine denier fiber fabrics in two different environmental conditions, which were the most comfortable condition and an extremely uncomfortable condition for humans. Then, by measuring the real time changes of relative humidity in inner and outer surfaces of test fabrics, fabrics’ dynamic comprehensive index was obtained to characterize fabrics’ dynamic moisture comfort property. Finally, grey system theory was introduced to establish prediction models that could describe the relationship between fabric’s static parameters and dynamic comprehensive index. Results show that fine denier fiber fabric has better moisture comfort property than conventional fiber fabrics.