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王洪江等:超细全尾砂深锥动态絮凝浓密试验 ·169 [10]Yin S H,Shao Y J,Wu A X,et al.A systematic review of paste (周旭,金晓刚,刘培正,等.基于动态浓密试验的深锥浓密机底 technology in metal mines for cleaner production in China.Clean 流浓度预测模型.金属矿山,2017(12):39) Prod,2020.247:119590 [19]Zhu L Y,Lyu W S,Yang P,et al.Effect of ultrasound on the [11]Wu A X,Ruan Z E,Wang J D,et al.Optimizing the flocculation flocculation-sedimentation and thickening of unclassified tailings. behavior of ultrafine tailings by ultra-flocculation.Chin J Eng Ultrason Sonochemistry,2020,66:104984 2019,41(8):981 [20]Jiao H Z,Wang S F.Yang Y X,et al.Water recovery (吴爱祥,阮竹恩,王建栋,等.基于超级絮凝的超细尾砂絮凝行 improvement by shearing of gravity-thickened tailings for 为优化.工程科学学报,2019,41(8):981) cemented paste backfill.J Clean Prod,2020,245:118882 [12]Li S.Wang X M.Zhang Q L.Dynamic experiments on [21]Wu A X,Ai C M,Wang Y M,et al.Test and mechanism analysis flocculation and sedimentation of argillized ultrafine tailings using on improving rheological property of paste with pumping agent.J fly-ash-based magnetic coagulant.Trans Nonferrous Met Soc Central South Univ Sci Technol,2016,47(8):2752 China,2016.26(7):1975 (吴爱样,艾纯明,王贻明,等.泵送剂改善膏体流变性能试验及 [13]Li L T,Yang Z Q,Wang Z H,et al.Experiments on the 机理分析.中南大学学报(自然科学版),2016,47(8):2752) flocculation and settling characteristics of the slurry with extra-fine [22]He P,Lin G J,Liu M Q,et al.Theory and application of uniform iron total tailings in angang mine.Min Res Dev,2017,37(3):19 designs.Sci Sin Math,2020,50(5):561 (李立涛,杨志强,王忠红,等.鞍钢矿山超细铁矿全尾砂浆絮凝 (贺平,林共进,刘民千,等.均匀设计理论与应用.中国科学数 沉降特性试验.矿业研究与开发,2017,37(3):19) 学,2020,50(5):561) [14]Bian J W,Wang X M,Xiao CC.Experimental study on dynamic [23]Qi C C,Fourie A.Cemented paste backfill for mineral tailings flocculating sedimentation of unclassified tailings.Central South management:Review and future perspectives.Miner Eng,2019, Univ Sci Technol,2017,48(12):3278 144:106025 (卞继伟,王新民,肖崇春.全尾砂动态絮凝沉降试验研究.中南 [24]Jiao HZ,Wang S F,Wu A X,et al.Shear evolution and connected 大学学报(自然科学版),2017,48(12):3278) mechanism of pore structure in thickening bed of paste.Central [15]Li C H,Shi Y Q,Liu P,et al.Analysis of the sedimentation South Univ Sci Technol,2019,50(5):1173 characteristics of ultrafine tailings based on an orthogonal (焦华枯,王树飞,吴爱样,等,膏体浓密床层孔隙结构剪切演化 experiment.Ady Mater Sci Eng,2019,2019:1 与连通机理.中南大学学报(自然科学版),2019,50(5):1173) [16]Shi X Z,Chen F,Lu E W,et al.Experimental study on [25]Gladman B R,Rudman M,Scales P J.The effect of shear on sedimentation characteristics of ultrafine leach residue after gravity thickening:Pilot scale modelling.Chem Eng Sci,2010, flocculation.Min Metall Eng,2018,38(2):1 65(14):4293 (史秀志,陈飞,卢二伟,等.超细粒级浸出渣絮凝沉降特性试验 [26]Wang H J,Wang Y,Wu A X,et al.Dynamic compaction and 研究.矿冶工程,2018,38(2):1) static compaction mechanism of fine unclassified tailings.J Univ [17]Gao W H.Wang H J,Chen H,et al.Study on main factors of Sci Technol Beijing,2013,35(5):566 underflow concentration in the dynamics thickening process of (王洪江,王勇,吴爱祥,等.细粒全尾动态压密与静态压密机理 tailings.Met Mine,2016(11):102 北京科技大学学报,2013,35(5):566) (高维鸿,王洪江,陈辉,等.尾矿动态浓密过程中底流浓度主要 [27]Yang Y,Wu A X,Wang H J,et al.Mechanics model of rake 影响因素研究.金属矿山,2016(11):102) torque based on sludge height and its mechanism analysis.J [18]Zhou X,Jin X G,Liu P Z,et al.Prediction model for underflow Central South Univ Sci Technol,2019,50(1):165 concentration of deep cone thickener based on dynamic thickening (杨莹,吴爱祥,王洪江,等.基于泥层高度的粑架扭矩力学模型 experimentation.Met Mine,2017(12):39 及机理分析.中南大学学报(自然科学版),2019,50(1):165)Yin S H, Shao Y J, Wu A X, et al. A systematic review of paste technology in metal mines for cleaner production in China. 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