基于高光谱成像和深度学习的含砷矿物分类研究

Natsuo Okada, Yohei Maekawa, Narihiro Owada, Kazutoshi Haga, A. Shibayama, Y. Kawamura
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引用次数: 2

摘要

目前,矿产资源的枯竭和短缺问题已经出现。这主要是由于高品位矿物的开采已经发生了很多年,因此迫使采矿业选择生产和优化低品位矿物。然而,这带来了大量的问题,其中许多是经济问题,源于在选矿所需的各个阶段对低品位矿物的净化。为了降低成本,帮助优化采矿流程,本研究引入了一种将深度学习的预测能力与高光谱成像的高分辨率相结合的矿物自动识别系统,用于矿物加工的前期阶段。这些技术用于对高品位含砷矿物和低品位含砷矿物进行无损识别和分类。执行此类任务的大部分能力来自高度通用的机器学习模型,该模型采用深度学习作为对矿物进行分类以进行矿物加工的手段。实验结果支持这一说法,因为该模型在含砷矿物的预测中能够达到90%以上的准确度,因此可以得出结论,该系统具有在采矿业中应用的潜力,因为它达到了现代系统的要求,如高精度、快速、经济、用户友好和自动矿物识别。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Classification of Arsenic Bearing Minerals Using Hyperspectral Imaging and Deep Learning for Mineral Processing
Currently, there have been issues concerning the depletion and scarcity of mineral resources. This is mostly due to the excavation of high grade minerals having already occurred years and years ago, hence forcing the mining industry to opt for the production and optimization of lower grade minerals. This however brings about a plethora of problems, many of which economic, stemming from the purification of those low grade minerals in various stages required for mineral processing. In order to reduce costs and aid in the optimization of the mining stream, this study, introduces an automatic mineral identification system which combines the predictive abilities of deep learning with the excellent resolution of hyperspectral imaging, for pre-stage of mineral processing. These technologies were used to identify and classify high grade arsenic (As) bearing minerals from their low grade mineral counterparts non-destructively. Most of this ability to perform such tasks comes from the highly versatile machine learning model which employs deep learning as a means to classify minerals for mineral processing. Experimental results supported this statement as the model was able to achieve an over 90% accuracy in the prediction of As-bearing minerals, hence, one could conclude that this system has the potential to be employed in the mining industry as it achieves modern day system requirements such as high accuracy, speed, economic, user-friendly and automatic mineral identification.
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