回收聚苯乙烯原料潜力的物料流分析与建模

Malin zu Castell-Rüdenhausen
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引用次数: 0

摘要

全球塑料生产最近经历了急剧增长,预计将加速增长。为了减少与塑料生产和消费相关的环境影响,欧洲的政策呼吁增加塑料回收。聚苯乙烯是一种主要的商品塑料,具有良好的可回收性;然而,今天,聚苯乙烯的回收水平低于其他商品塑料。为了促进塑料循环和增加聚苯乙烯的回收,本研究以芬兰为例,调查了聚苯乙烯回收的原料可用性。探讨了含有聚苯乙烯的主要废物流:城市固体废物,塑料包装废物,建筑和拆除废物,以及来自电气和电子设备的废物。建立了一个基于电子表格的物料流模型,用于在不同情景模拟中估计从废物流中提取聚苯乙烯的情况。输入模型的数据是通过文献综述和专家访谈收集的。通过定制输入数据,可以将该模型应用于其他地区。研究结果表明,通过在建筑工地实施聚苯乙烯收集计划,从单独收集的塑料包装废物和废弃电子产品中提取聚苯乙烯,以及对剩余的城市固体废物进行工业后分类,聚苯乙烯的回收潜力巨大。研究结果表明,有超过1万吨聚苯乙烯作为回收原料的潜力,其中高达52000吨来自建筑行业,2600吨来自单独收集的塑料包装废物,1800吨来自电气和电子设备废物,3200吨来自剩余的城市固体废物。可以得出结论,芬兰的聚苯乙烯回收潜力巨大,这在一定程度上是由欧洲回收目标推动的。然而,塑料回收的一个主要障碍与缺乏与塑料废物流动有关的数据有关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Material flow analysis and modelling of the feedstock potential for recycling polystyrene
Global plastic production has recently experienced dramatic growth, which is expected to accelerate. To reduce the environmental impacts related to plastic production and consumption, European policies call for increased plastic recycling. Polystyrene is a main commodity plastic with good recyclability; however, today, recycling levels for polystyrene are lower than those for other commodity plastics. To promote plastic circularity and increase polystyrene recycling, this study investigates feedstock availability for polystyrene recycling, using Finland as a case study. Key waste streams containing polystyrene are explored: municipal solid waste, plastic packaging waste, construction and demolition waste, as well as waste from electrical and electronic equipment. A spreadsheet-based material flow model was developed to estimate the extraction of polystyrene from waste streams in different scenario simulations. Data entered into the model was collected via literature review supported by expert interviews. This model can be applied to other regions by tailoring the input data. The results show significant potential for polystyrene recycling by implementing collection schemes for polystyrene at construction sites and by extracting polystyrene from separately collected plastic packaging waste and waste electronics, as well as by introducing industrial post-sorting of residual municipal solid waste. The findings indicate the potential of more than 10 thousand tonnes of polystyrene as feedstock for recycling, of which up to 5.2 thousand tonnes originate from the construction sector, 2.6 thousand tonnes from separately collected plastic packaging waste, 1.8 thousand tonnes from waste from electrical and electronic equipment, and 3.2 thousand tonnes from residual municipal solid waste. It can be concluded that there is significant potential for polystyrene recycling in Finland, which is partly driven by European recycling targets. However, a major obstacle for plastic recycling is related to the lack of data related to plastic waste flows.
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