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Material flow design and simulation for a glass panel recycling installation

机译:玻璃面板回收装置的物料流设计和模拟

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The current paper presents the design of a glass panels recycling flow and the method used for establishing the optimal processing installation architecture. In the solution provided in the current research, a novel approach centred on applying digital twinning in the design of the requested processing architecture is presented. It involves designing the virtual prototype of the diffused processing architecture and modelling the glass waste flow as a hybrid material flow. Dedicated analysis and simulation software is then used for establishing installation architecture and the specific parameters for each processing and transport capacity. The assessment of different processing scenarios by virtual modelling and simulations can also be used for exploring options to increase productivity and profit for other different recycling architectures. The main practical value of the study consists of creating the means to improve the waste recycling of automotive windshields, float glass or construction glass panels with metallic meshes, all representing categories of waste insufficiently recycled in Romania. The simulation results of the study were validated by tests made on the glass panel recycling installation. Also, a recovery glass rate of minimum 85% of the amount of waste loaded into the recycling system was achieved, obtaining a waste recycling quantity three times higher than initially anticipated.
机译:本文介绍了玻璃面板回收流程的设计以及用于建立最佳加工安装架构的方法。在当前研究提供的解决方案中,提出了一种新颖的方法,该方法集中于在请求的处理体系结构的设计中应用数字孪生。它涉及设计扩散处理架构的虚拟原型,并将玻璃废物流建模为混合材料流。然后,使用专用的分析和仿真软件来建立安装架构以及每种处理和运输能力的特定参数。通过虚拟建模和仿真对不同处理方案的评估还可以用于探索各种选择,以提高其他不同回收体系的生产率和利润。该研究的主要实用价值包括创造手段来改善汽车挡风玻璃,浮法玻璃或带有金属网的建筑玻璃板的废物回收利用,所有这些都代表了罗马尼亚回收不足的废物类别。通过在玻璃面板回收装置上进行的测试验证了研究的模拟结果。同样,回收玻璃的回收率至少达到了装入回收系统的废物量的85%,从而使废物的回收量比最初的预期高出三倍。

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