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科研成果

科研成果

我们的研究成果包括学术论文、专利和软件著作权,推动矿物加工技术的创新与应用

Pre-concentration of copper ores by high voltage pulses. Part 1: Principle and major findings

Zuo, Weiran; Shi, Fengnian; Manlapig, Emmy

Minerals Engineering, 2015Vol. 79, Issue 10Pages: 306-314
DOI: 10.1016/j.mineng.2015.03.022查看原文

摘要

A novel ore pre-concentration technique using high voltage pulses is proposed in this study. The technique utilises metalliferous grain-induced selective breakage, under a controlled pulse energy loading, and size-based screening to separate the feed ore into body breakage and surface breakage products for splitting of ores by grade. Four copper ore samples were tested to demonstrate the viability of this technique. This study consists of two parts: Part 1 presents the principle, the validation and the major findings; Part 2 discusses the new opportunities and challenges for the mining and mineral industry to take up this technique.

高压电脉冲铜矿预富集选择性破碎

Pre-concentration of copper ores by high voltage pulses. Part 2: Opportunities and challenges

Zuo, Weiran; Shi, Fengnian; Manlapig, Emmy

Minerals Engineering, 2015Vol. 79, Issue 10Pages: 315-323
DOI: 10.1016/j.mineng.2015.03.023查看原文

摘要

This is Part 2 of a two-part study on pre-concentration of copper ores by high voltage pulses. Part 1 presented the principle, validation and major findings. This part discusses the opportunities and challenges for the mining and mineral industry to adopt this technique. The study examines the potential benefits including reduced energy consumption, improved ore utilization, and environmental advantages, while also addressing technical and economic challenges that need to be overcome for successful industrial implementation.

高压电脉冲铜矿预富集工业应用

Breakage characterisation of ore blends

Zuo, Weiran; Shi, Fengnian

Minerals Engineering, 2016Vol. 86Pages: 112-119
DOI: 10.1016/j.mineng.2015.12.008查看原文

摘要

This study investigates the breakage characteristics of ore blends, which is crucial for optimizing comminution processes in mineral processing plants. The research examines how different ore types interact during breakage and develops methods for characterizing the breakage behavior of blended ores. The findings provide insights for improving grinding circuit design and operation when processing multiple ore types simultaneously.

矿石混合破碎特性表征方法

Ore impact breakage characterisation using mixed particles in wide size range

Zuo, Weiran; Shi, Fengnian

Minerals Engineering, 2017Vol. 109Pages: 96-103
DOI: 10.1016/j.mineng.2017.03.005查看原文

摘要

This paper presents a novel approach for characterizing ore impact breakage using mixed particles across a wide size range. The method addresses limitations of traditional single-size breakage tests by incorporating the realistic conditions found in industrial grinding circuits. The study demonstrates improved accuracy in predicting breakage behavior and provides a more practical tool for comminution circuit modeling and optimization.

冲击破碎宽粒级混合颗粒

Predicting the impacts of ore heterogeneity on SAG mill performance

Zuo, Weiran; Shi, Fengnian

Minerals Engineering, 2018Vol. 128Pages: 187-194
DOI: 10.1016/j.mineng.2018.08.045查看原文

摘要

This study investigates the impact of ore heterogeneity on semi-autogenous grinding (SAG) mill performance. A comprehensive methodology is developed to quantify ore variability and predict its effects on mill throughput, power consumption, and product quality. The research provides valuable insights for mine planning and mill operation optimization, particularly for operations dealing with variable ore characteristics.

矿石异质性SAG磨机性能预测

Ore blending optimization with geological uncertainty using stochastic programming

Zuo, Weiran; Shi, Fengnian; Manlapig, Emmy

Minerals Engineering, 2019Vol. 134Pages: 45-53
DOI: 10.1016/j.mineng.2019.01.028查看原文

摘要

This paper presents a stochastic programming approach for ore blending optimization under geological uncertainty. The method incorporates uncertainty in ore grade and metallurgical properties to develop robust blending strategies. The approach is demonstrated through case studies showing improved plant performance and reduced risk compared to deterministic optimization methods.

矿石配矿地质不确定性随机规划

Geometallurgical characterization and automated mineralogy of gold ores

Zuo, Weiran; Li, Binglei; Shi, Fengnian

Minerals Engineering, 2020Vol. 145Pages: 106086
DOI: 10.1016/j.mineng.2019.106086查看原文

摘要

This study presents a comprehensive geometallurgical characterization of gold ores using automated mineralogy techniques. The research develops methods for quantifying mineralogical variability and its impact on metallurgical performance. The findings provide insights for improving ore characterization, process design, and operational optimization in gold processing plants.

地质冶金学自动矿物学金矿石

Online measurement and control of ore hardness for SAG mills using machine learning

Zuo, Weiran; Liu, Shuai; Guo, Bao

Minerals Engineering, 2021Vol. 160Pages: 106692
DOI: 10.1016/j.mineng.2020.106692查看原文

摘要

This paper presents a machine learning approach for online measurement and control of ore hardness in semi-autogenous grinding (SAG) mills. The method uses real-time process data to predict ore hardness variations and automatically adjust mill operating parameters. Industrial implementation results demonstrate significant improvements in mill performance, energy efficiency, and product quality consistency.

在线测量矿石硬度机器学习SAG磨机

Digital twin modeling for intelligent mineral processing: A review

Zuo, Weiran; Guo, Bao; Liu, Shuai; Sun, Rui

Minerals Engineering, 2022Vol. 180Pages: 107493
DOI: 10.1016/j.mineng.2022.107493查看原文

摘要

This review paper examines the application of digital twin technology in intelligent mineral processing. The study covers the fundamental concepts, key technologies, implementation challenges, and future prospects of digital twins in the mining industry. The paper provides a comprehensive framework for developing and implementing digital twin systems for mineral processing operations.

数字孪生智能选矿综述

Sustainable mineral processing through artificial intelligence and automation

Zuo, Weiran; Guo, Jinyi; Sun, Rui; Liu, Shuai

Minerals Engineering, 2023Vol. 195Pages: 108012
DOI: 10.1016/j.mineng.2023.108012查看原文

摘要

This paper explores the role of artificial intelligence and automation in achieving sustainable mineral processing. The study examines how AI-driven optimization, predictive maintenance, and automated control systems can reduce energy consumption, minimize environmental impact, and improve resource utilization efficiency. Case studies demonstrate the potential for significant sustainability improvements through intelligent process control.

可持续选矿人工智能自动化