Tracking two decades of global gallium stocks and flows: A dynamic material flow analysis

被引:14
作者
Han, Zhongkui [1 ,2 ,3 ]
Liu, Qiance [3 ]
Ouyang, Xin [4 ]
Song, Huiling [5 ]
Gao, Tianming [1 ,2 ]
Liu, Yanfei [6 ]
Wen, Bojie [1 ,2 ]
Dai, Tao [1 ,2 ]
机构
[1] Chinese Acad Geol Sci, Inst Mineral Resources, Beijing 100037, Peoples R China
[2] Chinese Acad Geol Sci, Res Ctr Strategy Global Mineral Resources, Beijing 100037, Peoples R China
[3] Univ Southern Denmark, Dept Green Technol, SDU Life Cycle Engn, DK-5230 Odense, Denmark
[4] Chinese Acad Sci, Inst Geog Sci & Nat Resources Res, Beijing 100101, Peoples R China
[5] Zhengzhou Univ, Business Sch, Zhengzhou 450001, Peoples R China
[6] China Univ Geosci Beijing, Sch Earth Sci & Resources, Beijing 100083, Peoples R China
基金
中国国家自然科学基金;
关键词
Gallium; Byproduct; Material flow analysis; Supply and demand balance; Recycling; Industrial ecology; RED MUD; RECOVERY; AVAILABILITY; ALUMINUM; GERMANIUM; METALS; INDIUM; EXTRACTION; TELLURIUM; CHINA;
D O I
10.1016/j.resconrec.2023.107391
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Gallium (Ga) has recently garnered significant attention as a crucial byproduct element due to its crucial role in advancing low-carbon technologies and its globally imbalanced supply-demand. Understanding the global Ga flows and stocks can contribute to discovering ways to mitigate potential supply risks. In this study, we applied a material flow analysis to map the global Ga cycle from 2000 to 2021. Our results reveal the following results: (1) Over the past two decades, a cumulative 15.3% (313240.8 tons) of the total Ga reserves has been consumed through host metals (i.e., bauxite and zinc ores) mining. However, affected by actual demand, only 5549.7 tons of Ga have been extracted. Moreover, China has gradually become the dominant supplier of primary Ga globally, relying on its robust alumina industry. (2) The consumption pattern of global Ga is becoming increasingly complex. Driven by the diffusion of low-carbon technologies, primary Ga consumption has grown from 101 tons in 2000 to 432 tons in 2021. With a low material efficiency, only 2143.4 tons of Ga ultimately enter final products from semi-products. (3) The global Ga stock reached 956.7 tons in 2021 with significant recycling potential. However, commercial recycling systems were not established, and Ga resources in end-of-life (EoL) final products are mostly wasted. Given the anticipated growth of Ga demand, more coordinated efforts among different regions to promote technological innovation and improve recycling and circularity rates are urgently needed to ensure global Ga supply and a shared green future.
引用
收藏
页数:9
相关论文
共 72 条
[1]   Analytical and reclamation technologies for identification and recycling of precious materials from waste computer and mobile phones [J].
Andrade, Daniel Fernandes ;
Castro, Jeyne Pricylla ;
Garcia, Jose Augusto ;
Machado, Raquel Cardoso ;
Pereira-Filho, Edenir Rodrigues ;
Amarasiriwardena, Dulasiri .
CHEMOSPHERE, 2022, 286
[2]  
Australia Department of Industry S. and R, 2022, 2022 critical minerals strategy
[3]  
Australian Department of Industry S. and R., 2023, Australia's Critical Minerals List
[4]  
British Geological Survey, 2021, UK Criticality Assessment of Technology Critical Minerals and Metals
[5]   Assessment of LED lamps components and materials for a recycling perspective [J].
Cenci, Marcelo Pilotto ;
Dal Berto, Frederico Christ ;
Schneider, Eduardo Luis ;
Veit, Hugo Marcelo .
WASTE MANAGEMENT, 2020, 107 :285-293
[6]   In-suit ion-imprinted bio-sorbent with superior adsorption performance for gallium(III) capture [J].
Chai, Na ;
Gao, Lihui ;
Li, Shulei ;
Cao, Yijun ;
Ma, Zilong ;
Li, Lingni ;
Hu, Ming .
JOURNAL OF CLEANER PRODUCTION, 2023, 387
[7]   Estimating the quantities of critical metals embedded in ICT and consumer equipment [J].
Chancerel, Perrine ;
Marwede, Max ;
Nissen, Nils F. ;
Lang, Klaus-Dieter .
RESOURCES CONSERVATION AND RECYCLING, 2015, 98 :9-18
[8]   Towards Increased Recovery of Critical Raw Materials from WEEE-evaluation of CRMs at a component level and pre-processing methods for interface optimisation with recovery processes [J].
Charles, Rhys G. ;
Douglas, Peter ;
Dowling, Mark ;
Liversage, Gareth ;
Davies, Matthew L. .
RESOURCES CONSERVATION AND RECYCLING, 2020, 161
[9]   System Dynamics Modeling of Indium Material Flows under Wide Deployment of Clean Energy Technologies [J].
Choi, Chul Hun ;
Cao, Jinjian ;
Zhao, Fu .
RESOURCES CONSERVATION AND RECYCLING, 2016, 114 :59-71
[10]   Recycling of WEEEs: An economic assessment of present and future e-waste streams [J].
Cucchiella, Federica ;
D'Adamo, Idiano ;
Koh, S. C. Lenny ;
Rosa, Paolo .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2015, 51 :263-272