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用于制造早产儿防护服的潜在材料的生物物理特性评估

Evaluation of Biophysical Properties of Potential Materials for the Manufacture of Protective Garments for Preterm Infants.

作者信息

Wilgocka Karolina, Skrzetuska Ewa, Krucińska Izabella, Sujka Witold

机构信息

Institute of Material Science of Textiles and Polymer Composites, Faculty of Material Technologies and Textile Design, Lodz University of Technology, 116 Żeromskiego Street, 90-924 Lodz, Poland.

Tricomed SA, 5/9 Świętojańska Street, 93-493 Lodz, Poland.

出版信息

Materials (Basel). 2022 Jul 13;15(14):4878. doi: 10.3390/ma15144878.

DOI:10.3390/ma15144878
PMID:35888349
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9315641/
Abstract

Preterm infants, due to immature and dysfunctional skin, have increased water loss through the skin and consequently a decreased body temperature. In order to develop protective garments for preterm infants, it is important to select materials that will protect the child against water and heat loss. The authors are currently involved in the development of protective garments for premature babies, which are similar to baby clothes and contain a membrane that is partially permeable for vapor in combination with textile materials. This article presents the study of materials intended for the production of protective garments for pre-term infants. Samples of materials were investigated to determine biophysical comfort (tests of heat resistance, vapor resistance according to PN-EN ISO 11092:2014-11 and air permeability according to PN-EN ISO 9237) and porosity, surface mass in accordance with PN-EN 12127, and thickness in accordance with PN-EN ISO 5084. In order to determine the porosity of materials and to visualize the structure, tests on computer microtomography were carried out. The mechanical properties of the tested materials and the evaluation of the total hand value were characterized; the samples were tested on the KES device. The aim of this study was to select the most suitable fabrics for protective garments for premature infants to prevent excessive heat and moisture loss from the body, which can lead to hypothermia. For laminates, the optimal results of vapor resistance and heat resistance were obtained for laminate (15 g·m PE foil + 15 g·m PP non-woven), with a level of thermal resistance of 0.0766 m·K·W and vapor resistance of 188.729 m·Pa·W, and for laminate (15 g·m PE foil + 10 g·m PP non-woven), with a level of thermal resistance of 0.0683 m·K·W and vapor resistance of 164.085 m·Pa·W. For knitted fabrics, knitwear single cotton 155 g·m showed the highest thermal resistance (0.0296 m·K·W), and knitwear interlock polyester 120 g·m showed the lowest thermal resistance (0.0179 m·K·W). Knitwear cotton 120 g·m had the highest water vapor resistance (8.402 m·Pa·W), while knitwear interlock polyester 130 g·m sample had the lowest resistance (6.356 m·Pa·W). Garments for premature babies should have moisture barrier properties and high thermal insulation. They should also be characterized by optimal air permeability properties. Sample two-layer laminate (15 g·m PE foil + 15 g·m PP non-woven) had the best vapor resistance and thermal insulation properties. Moreover, this sample was characterized by good air permeability and surface weight compared to the other laminate samples. During the design of garments for premature babies, it is important to reduce the surface weight to as low as possible. Among the knitted fabrics, a knitwear single cotton 120 g·m knitwear polyester interlock 120 g·m was selected for having the best THV or tactile comfort. In addition, these knits were chosen for their lower surface weight. Based on the conducted tests, two-layer laminate (15 g·m PE foil + 15 g·m PP non-woven), the knitwear single cotton 120 g·m and knitwear polyester interlock 120 g·m were selected for further research.

摘要

早产儿由于皮肤不成熟且功能失调,经皮肤的水分流失增加,进而导致体温下降。为了开发适合早产儿的防护服,选择能够保护婴儿防止水分和热量流失的材料非常重要。作者目前正在参与为早产儿开发防护服,这种防护服类似婴儿服装,包含一种与纺织材料结合的对蒸汽部分可渗透的膜。本文介绍了用于生产早产儿防护服的材料研究。对材料样本进行了调查,以确定生物物理舒适性(根据PN - EN ISO 11092:2014 - 11进行耐热性、蒸汽阻力测试,根据PN - EN ISO 9237进行透气性测试)以及孔隙率、按照PN - EN 12127的表面质量和按照PN - EN ISO 5084的厚度。为了确定材料的孔隙率并可视化结构,进行了计算机显微断层扫描测试。对测试材料的机械性能和总手感值评估进行了表征;样本在KES设备上进行测试。本研究的目的是选择最适合早产儿防护服的面料,以防止身体过多的热量和水分流失,这可能导致体温过低。对于层压材料,层压材料(15 g·m PE箔 + 15 g·m PP无纺布)获得了最佳的蒸汽阻力和耐热性结果,热阻水平为0.0766 m·K·W,蒸汽阻力为188.729 m·Pa·W;层压材料(15 g·m PE箔 + 10 g·m PP无纺布)的热阻水平为0.0683 m·K·W,蒸汽阻力为164.085 m·Pa·W。对于针织物,单棉155 g·m的针织物显示出最高的热阻(0.0296 m·K·W),而双面聚酯120 g·m的针织物显示出最低的热阻(0.0179 m·K·W)。120 g·m的棉针织物具有最高的水蒸气阻力(8.402 m·Pa·W),而130 g·m的双面聚酯针织物样本具有最低的阻力(6.356 m·Pa·W)。早产儿服装应具有防潮性能和高隔热性。它们还应以最佳的透气性能为特征。双层压材料样本(15 g·m PE箔 + 15 g·m PP无纺布)具有最佳的蒸汽阻力和隔热性能。此外,与其他层压材料样本相比,该样本具有良好的透气性和表面重量。在设计早产儿服装时,将表面重量尽可能降低很重要。在针织物中,120 g·m的单棉针织物和120 g·m的双面聚酯针织物因其具有最佳的总手感值或触觉舒适性而被选中。此外,选择这些针织物是因为它们的表面重量较低。基于所进行的测试,双层压材料(15 g·m PE箔 + 15 g·m PP无纺布)、120 g·m的单棉针织物和120 g·m的双面聚酯针织物被选中进行进一步研究。

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