Biodegradable Foam dari Bonggol Pisang dan Ubi Nagara sebagai Kemasan Makanan yang Ramah Lingkungan (Biodegradable Foam Derived from Musa acuminate and Ipomoea batatas L. as an Environmentally Friendly Food Packaging)

Chairul Irawan, A. Aliah, A. Ardiansyah
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引用次数: 10

Abstract

Biodegradable foam is a packaging material intended as a substitute for styrofoam. Materials used in this study were mahuli banana (Musa acuminata) stem and nagara tubers (Ipomoea batatas L) with aim to find out the best composition material for the best physical characteristics of biodegradable foam. Prior to use in the process of making biodegradable foam, mahuli banana stem and nagara tuber were firstly pulverized to a size of 100 mesh. Then, the mahuli banana stem and nagara tubers powders were mixed with compositions of 60:40, 70:30, and 80:20; and as controls pure material was utilized. Another treatment was the addition of PVA (polyvinyl alcohol) as much as 10%v/v and no addition of PVA (UNPVA). The process of making biodegradable foam began with plasticizing on a hotplate at 150oC for 3 minutes, thermopressing, and drying in a microwave. The biodegradable foam (bio-foam) characteristics were tested with DSC and SEM as well as for its hardness and biodegradation. Based on the results of hardness test, DSC, SEM and biodegradation, the best physical characteristic was obtained from 60:40 composition with the addition of PVA. The hardness test of bio-foam with PVA and UNPVA was 4.02 MPa and 3.59 MPa, respectively. The melting point of bio-foam with the addition of PVA was 166.50 oC with heating flow of -12.38 MW whereas the melting point of bio-foam without UNPVA addition was 166.45 oC with heating flow of -16.07 MW. The result of SEM test showed that bio-foam mixed with PVA had a smaller pore compared to UNPVA. The structure of bio-foam with a smaller pore produced biodegradable foam with higher compressive strength. Biodegradation test results showed that both samples were completely degraded after ± 2 months of being deposited in the soil.
可生物降解泡沫是一种包装材料,旨在替代聚苯乙烯泡沫。本研究以马uli banana (Musa acuminata)茎和nagara块茎(Ipomoea batatas L)为材料,旨在寻找具有最佳物理特性的生物降解泡沫的最佳组成材料。在制作可生物降解泡沫之前,马uli香蕉茎和永良块茎首先被粉碎到100目的大小。然后,将马uli香蕉茎粉和永良块茎粉按60:40、70:30和80:20的比例混合;作为对照,使用纯材料。另一种处理是添加10%v/v的PVA(聚乙烯醇)和不添加PVA (UNPVA)。制作可生物降解泡沫的过程首先是在150摄氏度的加热板上塑化3分钟,热敷,然后在微波炉中干燥。采用DSC和SEM测试了生物可降解泡沫(bio-foam)的特性,并对其硬度和生物降解性进行了测试。硬度测试、DSC、SEM和生物降解测试结果表明,PVA用量为60:40时,复合材料的物理性能最佳。PVA和UNPVA的生物泡沫硬度测试值分别为4.02 MPa和3.59 MPa。添加PVA的生物泡沫熔点为166.50℃,加热流量为-12.38 MW;未添加UNPVA的生物泡沫熔点为166.45℃,加热流量为-16.07 MW。SEM测试结果表明,与UNPVA相比,混合了PVA的生物泡沫具有更小的孔隙。孔径较小的生物泡沫结构产生的生物可降解泡沫具有较高的抗压强度。生物降解试验结果表明,两种样品在土壤中沉积±2个月后完全降解。
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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