Opportunities for plasma separation techniques in rare earth elements recycling

被引:47
作者
Gueroult, Renaud [1 ]
Rax, Jean-Marcel [2 ]
Fisch, Nathaniel J. [3 ]
机构
[1] Univ Toulouse, CNRS, UPS, INPT,Laplace, F-31062 Toulouse, France
[2] Univ Paris XI, Ecole Polytech, LOA ENSTA CNRS, F-91128 Palaiseau, France
[3] Princeton Plasma Phys Lab, Princeton, NJ 08540 USA
关键词
Rare earth elements; Recycling; Separation; Plasma mass filter; Economic feasibility; SPENT NUCLEAR-FUEL; VACUUM-ARC CENTRIFUGE; ISOTOPE-SEPARATION; MASS FILTER; ROTATING PLASMAS; NDFEB MAGNET; HUMAN HEALTH; ENVIRONMENT; AVAILABILITY; TECHNOLOGY;
D O I
10.1016/j.jclepro.2018.02.066
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Rare earth elements recycling has been proposed to alleviate supply risks and market volatility. In this context, the potential of a new recycling pathway, namely plasma mass separation, is uncovered through the example of nedodymium - iron - boron magnets recycling. Plasma mass separation is shown to address some of the shortcomings of existing rare earth elements recycling pathways, in particular detrimental environmental effects. A simplified mass separation model suggests that plasma separation performances could compare favourably with existing recycling options. In addition, simple energetic considerations of plasma processing suggest that the cost of these techniques may not be prohibitive, particularly considering that energy costs from solar may become significantly cheaper. Further investigation and experimental demonstration of plasma separation techniques should permit asserting the potential of these techniques against other recycling techniques currently under development. (C) 2018 Elsevier Ltd. All rights reserved.
引用
收藏
页码:1060 / 1069
页数:10
相关论文
共 106 条
[1]  
Akahori T., 2014, RARE METAL TECHNOLOG
[2]   Evaluating Rare Earth Element Availability: A Case with Revolutionary Demand from Clean Technologies [J].
Alonso, Elisa ;
Sherman, Andrew M. ;
Wallington, Timothy J. ;
Everson, Mark P. ;
Field, Frank R. ;
Roth, Richard ;
Kirchain, Randolph E. .
ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2012, 46 (06) :3406-3414
[3]  
[Anonymous], 2011, CRITICAL MAT STRATEG
[4]  
[Anonymous], 2016, ARCH ENV OCCUP HLTH
[5]   Distribution of the lithium deposition on the collector during separation of lithium isotopes by the plasma ICR method [J].
Babichev, A. P. ;
Gorshunov, N. M. ;
Dolgolenko, D. A. ;
Zotin, G. E. ;
Laz'ko, V. S. ;
Muromkin, Yu. A. ;
Pashkovskii, V. G. ;
Peshkov, A. T. .
PLASMA PHYSICS REPORTS, 2014, 40 (09) :760-766
[6]   Rare Earth Recycling: Forecast of Recoverable Nd from Shredder Scrap and Influence of Recycling Rates on Price Volatility [J].
Bandara H.M.D. ;
Mantell M.A. ;
Darcy J.W. ;
Emmert M.H. .
Journal of Sustainable Metallurgy, 2015, 1 (03) :179-188
[7]   Rare earth recovery from end-of-life motors employing green chemistry design principles [J].
Bandara, H. M. Dhammika ;
Field, Kathleen D. ;
Emmert, Marion H. .
GREEN CHEMISTRY, 2016, 18 (03) :753-759
[8]   Advances and problems in plasma-optical mass-separation [J].
Bardakov, V. M. ;
Ivanov, S. D. ;
Strokin, N. A. .
PHYSICS OF PLASMAS, 2014, 21 (03)
[9]   Mass separation of ions in a circular plasma flow [J].
Bardakov, V. M. ;
Kichigin, G. N. ;
Strokin, N. A. .
TECHNICAL PHYSICS LETTERS, 2010, 36 (02) :185-188
[10]   National strategies for securing a stable supply of rare earths in different world regions [J].
Bartekova, Eva ;
Kemp, Rene .
RESOURCES POLICY, 2016, 49 :153-164