The Rare Earth Elements: An in-Depth Exploration of Industrial Utilization, Recycling Potential and Environmental Ramifications
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This comprehensive study delves into the extensive spectrum of applications attributed to rare earth elements (REEs), their potential for effective recycling, and the intricate environmental considerations entwined with their extraction and utilization. The realm of rare earth elements is undergoing rapid transformations fueled by technological progress and the escalating demand for these essential components. The spectrum of REEs encompasses the lanthanide series elements, namely La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, and Lu, as well as Sc and Y. These metals currently hold utmost significance across a multitude of contemporary technologies, spanning from smartphones, televisions, LED light bulbs, to wind turbines. This paper concisely outlines the environmental perils encompassing human health that stem from REE mining practices and the large-scale disposal of electronic waste containing noteworthy concentrations of REEs. Within these pages, we encapsulate novel strategies aimed at ensuring the future availability of REEs, including recent advancements in REE extraction from Coal Field Ash and innovative e-waste recycling methodologies. Additionally, we spotlight recent breakthroughs in the domain of individual REE separation techniques, encompassing both metallurgical and recycling operations.
Balaram, V (2016). Recent advances in the determination of elemental impurities in Pharmaceutical, status, challenges and moving frontiers. Trends in Analytical Chemistry, 80,83-95.
Balaram, V(2019). Rare earth elements: A review of applications, occurrence, exploration, analysis, Recycling and environmental impact. Geoscience frontiers, 10, 1285-1303.
Bogart, J.A, Lippincott, Carroll, Schettera (2016). Accomplishing simple, solubility based separation of rare earth elements with Complexes bearing size- sensitive molecular apertures. PNAS113(52), 14887-14892.
Bott. A (1995). Voltammetric determination of trace concentration of metals in the environment current separations, 14, 24-30.
Dai and ward(2016). A review of anomalous rare earth elements and yttrium in coal. International Journal of Geology, 159, 82-95.
Dostal (2017). Rare earth elements deposits of alkaline igneous rocks. Resources, 6(34), 1-2.
Dutt, Kim, kwon, jeon, Deep(2016). Global demand for rare earth resources and strategies for green mining. Environmental research, 50, 182-190.
Embo, Brest, durability, koenig(2015). Rare earth elements in sedimentary Phosphate deposits: Solution to the global REE crisis?. Gondwana Research, 27, 776-785.
Graede (2015). Metals used in high-tech products face future supply risks. PNAS.https://phys.org/print346672145.html.
Fang, Cole, Qjao,Bogart,Manor(2017). Electro-kinetic separation of rare earth elements using a radioactive ligand. Augewandte chemical international edition,56, 13450-13454.
Gweuzi, Mangori, Danha, Danjuma(2018). Sources,behaviour and environmental and human health risks of high-technology rare earth elements as emerging contaminates. The science of the total environment, 636, 299-313.
Nguyen, Diaz, Imbolte, Lister (2017). Economic assessment for recycling critical metals from hard disks drives using a comprehensive recovery process. Jom 69, (9), 1546-1552.
Owolabi, J.A (2013). Assessment of Trace and rare earth element distribution and speciation in Bauxite deposits across Ekiti and Ondo States, Nigeria. Engerineering and technology journal, vol8 issue 8, 2613- 2620.
Rani, Mehra, Duggal, Balaram (2013). Analysis of ilranima concentration in drinking water samples using ICP-MS. Health physics 104, 251-255.
Reddy, Babu, Balaram (2012). Assessment of the effects of municipal sewage immersed idols and boating on the heavy metal and other elemental pollution of Surface water of the entropic Hussain sugar lake. Environmental monitoring and assessment 184, 1991-2000.
Roaldset (1973). Metal flux from hydrothermal vents increased by organic complexities. Nature Geoscience 4, 145-150.
Sparks (2005). Toxic metals in the environment: the role of Surfaces. Element 1, 193-197.
Sprecher, Xiao, Walton, speight, Harris (2014). Live cycle inventory of the production of rare earths and the subsequent production of NdFeB rare earth permanent magnets. Environmental science and technology 48(7), 3951-3958.
Sowerbutts, l (2017). https//www.geology for investors.com/rare-earth-element-deposits.
Weng, walker,Fassel,Wendt(2013). Inductively-coupled plasma spectrometric excitation source. Analytical Chemistry 37,920-922.
US Geological survey, 2018.
Wilburn and Karli (2018). Exploration review. Mining engineering, 70(5), 28- 30.