Faculty of Civil Engineering and Geosciences, Delft University of Technology, Delft 2628 CN, the Netherlands.
Myne Circular Metals, Harderwijk 3846 BP, the Netherlands.
Waste Manag. 2024 Dec 1;189:103-113. doi: 10.1016/j.wasman.2024.08.018. Epub 2024 Aug 24.
The growing demand for aluminium worldwide makes aluminium recycling critical to realising a circular economy and increasing the sustainability of our world. One effective way to improve the impact of aluminium recycling is to develop cost-efficient automated sorting technologies for obtaining pre-defined high-quality aluminium scrap products, thus reducing undesirable downcycling and increasing environmental/economic benefits. In this work, an innovative facility, which includes singulation, sensor scanning, and ejection, is optimised for the automated sorting of aluminium scraps. The sorting facility is computationally studied by a virtual experiment model based on the discrete element method. The model considers particle-scale dynamics of complex-shaped scraps and mimics the automated operation of the facility. Based on virtual experiment modelling, the flow of scrap is optimized by computation, with the feasible operation of the sorting facility being proposed. Accordingly, the sorting facility has been built and model predictions are confirmed in actual operation.
全球对铝的需求不断增长,这使得铝回收对于实现循环经济和提高我们世界的可持续性至关重要。提高铝回收影响的一种有效方法是开发具有成本效益的自动化分拣技术,以获得预定的高质量铝废料产品,从而减少不理想的降级回收,并提高环境/经济效益。在这项工作中,为了实现铝废料的自动化分拣,优化了一种包括分离、传感器扫描和弹出的创新设施。基于离散元法的虚拟实验模型对分拣设施进行了计算研究。该模型考虑了复杂形状废料的颗粒尺度动力学,并模拟了设施的自动化操作。基于虚拟实验建模,通过计算优化废料的流动,提出了分拣设施的可行操作。因此,已经建立了分拣设施,并在实际运行中验证了模型预测。