UTILIZATION OF SUPER ABSORBENT POLYMERS (SAP) IN EXTENSIVE GREEN ROOF ASWATER RETENTION IN URBAN AREA

Jane Aezel T. Asinas, Juanito V. Bajar III, Jhon Rhandy Cabanes, Roy Joseph Domino, Gerardo A.D. Abestilla, Crispin S. Lictaoa
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引用次数: 2

Abstract

A green roof is formed by waterproof substrate covered with vegetation. It is capable of absorbing water and adding hydrogels may increase its water absorption. The objective of this study is to utilize hydrogel in extensive green roof as an aid in water retention in urban areas. There are four green roof models: Panel 1 has 0% of hydrogels, Panel 2 has 0.40% of hydrogels, Panel 3 has 0.50% of hydrogels and Panel 4 has 0.60% of hydrogels. Each green roof model undergo series of test through the rain simulator with rain gauge at the center of the panel to determine the rainfall intensity. Other than the percentage of hydrogel;; rainfall intensity, duration of rain event and moisture content of the substrate before testing are the factors that affect the water retention in the green roof. This study shows that the green roof with hydrogel has greater water retention than the green roof without hydrogel. It is determined that the hydrogels can absorb approximately 330 times more than its own weight in a day and 37.048 seconds shows the most probable value of water run--off that may occur in the rain event based from the data collected in this study. It was concluded that the maximum value of water that the soil can absorb is entirely dependent on the time the water system was used. The result of the data analysis shows that each of the independent variable has a positive correlation to the dependent variable which is the volume of the water retained in the substrate.
高吸水性聚合物(sap)在城市绿化屋顶中的应用
绿色屋顶由覆盖着植被的防水基底形成。它具有吸水性,加入水凝胶可提高其吸水性。本研究的目的是利用水凝胶在城市地区广泛的绿色屋顶作为保水的援助。有四种绿色屋顶模型:面板1的水凝胶含量为0%,面板2的水凝胶含量为0.40%,面板3的水凝胶含量为0.50%,面板4的水凝胶含量为0.60%。每个绿色屋顶模型都要通过在面板中央设置雨量计的降雨模拟器进行一系列测试,以确定降雨强度。除水凝胶百分比外;;降雨强度、降雨持续时间和试验前基质含水率是影响屋顶绿化保水性的因素。本研究表明,有水凝胶的绿色屋顶比没有水凝胶的绿色屋顶具有更大的保水性。根据本研究收集的数据,确定水凝胶在一天内可以吸收大约330倍于其自身重量的水,37.048秒显示了降雨事件中可能发生的最可能的水流失值。结果表明,土壤能吸收的最大水量完全取决于水系统的使用时间。数据分析的结果表明,每个自变量都与因变量(即基质中保留的水的体积)呈正相关。
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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