钢筋混凝土建筑屋面防水系统生命周期评价(LCA

Sukwon Ji, D. Kyung, Woojin Lee
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引用次数: 3

摘要

在这项研究中,我们使用建筑模型对钢筋混凝土建筑的六种屋顶防水系统[沥青(C1)、合成聚合物基板(C2)、改良沥青(C3)、液体涂膜(C4)、金属板与沥青板(N1)和液体涂膜与沥青板(N2)]进行了生命周期评估(LCA)。为了获得准确和真实的LCA结果,使用了生命周期清单中材料成分的最小单位和防水材料成分的真实数据。仅考虑每平方米防水系统的材料和能源需求,施工阶段温室气体排放量的大小为C1 > N2 > C4 > N1 > C2 > C3。然而,当根据每个规格将实际的建筑模型应用于屋顶时,顺序改为C1 > C4 > C3 > N2 > N1 > C2。在整个生命周期(包括建设、维护和拆除)中,温室气体排放量为C4 > C1 > C3 > N2 > C2 > N1。因此,N1是最环保的防水体系,产生的温室气体排放量最低。维护阶段的温室气体排放量占全生命周期的71.4%~78.3%。
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Life cycle assessment (LCA) of roof-waterproofing systems for reinforced concrete building
In this study, we investigated a life cycle assessment (LCA) of six roof-waterproofing systems [asphalt (C1), synthetic polymer-based sheet (C2), improved asphalt (C3), liquid applied membrane (C4), Metal sheet with asphalt sheet (N1), and liquid applied membrane with asphalt sheet (N2)]for reinforced concrete building using an architectural model. To acquire accurate and realistic LCA results, minimum units of material compositions for life cycle inventory and real data for compositions of waterproofing materials were used. Considering only materials and energy demands for waterproofing systems per square meter, higher greenhouse gas (GHG) emissions could be generated in the order of C1 > N2 > C4 > N1 > C2 > C3 during construction phase. However, the order was changed to C1 > C4 > C3 > N2 > N1 > C2, when the actual architecture model was applied to the roof based on each specifications. When an entire life cycle including construction, maintenance, and deconstruction were considered, the amount of GHG emission was in the order of C4 > C1 > C3 > N2 > C2 > N1. Consequently, N1 was the most environmental-friendly waterproofing system producing the lowest GHG emission. GHG emissions from maintenance phase accounted for 71.4%~78.3% among whole life cycle.
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