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Heat recovery in sanitary-ware industry applied to water and energy saving by multi-effect distillation

机译:卫生行业的热回收通过多效蒸馏应用于节水节能

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Sanitary-ware industry, as a sub-sector in the ceramic industry, is a great consumer of energy and water, although there are some opportunities to reduce the global consumption, especially for factories based on resin molds technology. This research aims to show the way to reduce drastically water consumption by recovering waste heat into a multi-effect distillation system to re-use most of the flushing water. This solution improves both, the environmental and economic performance of this industry. The proposed configuration is a multi-effect distillation (MED) adapted to run with recovered heat from the kiln exhausting. The efficiency of the system is improved by recovering the heat of the gas mixture leaving the first effect in the pre-heater of the feeding water. The research lays on the computerized simulation of the coupled systems run under different parameters. Mathematical and thermodynamic models have been developed to simulate the behavior of the system. The obtained results show the optimal configuration depending on the thermal variables which could achieve up to almost 92% of the needed water against conventional technology. The system can be applicable to new or existing factories based on resin molds technology and this research may contribute to reduce consumption of resources and thus, the environmental impact. (C) 2018 Elsevier Ltd. All rights reserved.
机译:卫生洁具行业是陶瓷行业的一个子行业,是能源和水的主要消费国,尽管有一些机会可以减少全球消费量,尤其是对于基于树脂成型技术的工厂。这项研究旨在展示通过将废热回收到多效蒸馏系统中以重复利用大部分冲洗水来大幅减少水消耗的方法。该解决方案改善了该行业的环境和经济绩效。拟议的配置是一种多效蒸馏(MED),适用于利用窑炉排气中回收的热量运行。通过回收混合气的热量,在给水的预热器中产生第一效果,可以提高系统的效率。该研究基于在不同参数下运行的耦合系统的计算机仿真。已经开发了数学模型和热力学模型来模拟系统的行为。所获得的结果显示出取决于热变量的最佳配置,与传统技术相比,该配置可以达到几乎92%的所需水量。该系统可以适用于基于树脂模具技术的新工厂或现有工厂,这项研究可能有助于减少资源消耗,从而减少对环境的影响。 (C)2018 Elsevier Ltd.保留所有权利。

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